|
HS Code |
642779 |
| Cas Number | 40088-47-9 |
| Molecular Formula | C12H6Br4O |
| Molecular Weight | 485.79 g/mol |
| Appearance | Off-white to light tan powder |
| Melting Point | 95-105 °C |
| Solubility In Water | Insoluble |
| Density | 2.57 g/cm³ |
| Synonyms | TetraBDE, Tetrabromodiphenyl ether, PBDE-47 |
As an accredited Tetrabromodiphenyl Ether factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Tetrabromodiphenyl Ether, 100g, packaged in a sealed amber glass bottle with hazard labels, inside a protective cardboard box. |
| Shipping | Tetrabromodiphenyl Ether should be shipped in tightly sealed, clearly labeled containers, compliant with international regulations for hazardous chemicals. It must be protected from moisture, heat, and incompatible materials during transport. Proper documentation and handling precautions are essential, and shipping must adhere to relevant guidelines such as IATA, IMDG, and DOT regulations. |
| Storage | Tetrabromodiphenyl ether should be stored in a cool, dry, and well-ventilated area, away from incompatible substances such as strong oxidizers and sources of ignition. Keep the container tightly closed, clearly labeled, and protected from physical damage. Store it in a secure location designed for hazardous chemicals, minimizing exposure to heat, sunlight, and moisture to prevent degradation or chemical reactions. |
Applications of Tetrabromodiphenyl Ether in Industrial ManufacturingOur tetrabromodiphenyl ether supports multiple specialized fields as a flame retardant additive. We supply high-purity product for integration into downstream value chains where thermal stability and stringent fire safety standards are critical. The following sections detail principal industrial scenarios, compliance, recommended ratios, integration routes, and typical end products. 1. Rigid Polyurethane Foam for Insulation PanelsRigid polyurethane foam manufacturers utilize tetrabromodiphenyl ether to meet fire classification requirements in building and refrigeration insulation. The raw material introduces halogen content that enhances ignition resistance, especially for insulation products destined for transportation, cold storage facilities, and commercial construction. Dosing and uniformity remain crucial to maintain mechanical properties while reaching targeted flame spread ratings. Our technical support addresses formulation to balance insulation performance and compliance. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
2. High-Performance ABS Resin Compounds for Electronics HousingsABS resin compounders integrate tetrabromodiphenyl ether in masterbatches used for producing housings and structural parts for electrical and electronic devices. It enables compliance with consumer electronics safety directives, resisting ignition from internal or external heat sources. Process engineers optimize filler dispersion to maintain dimensional stability and surface finish. Each batch undergoes flammability and mechanical validation to meet OEM requirements and global distribution norms. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
3. Wire and Cable Flame Retardant CompoundsCable compound formulators employ tetrabromodiphenyl ether in the jacket and insulation layers of power cables, instrument wires, and communication cables. The inclusion ensures compliance with flame propagation and smoke density limits set by transportation, energy, and building regulators. Formulation specialists balance brominated content with antimony trioxide and compatible plastifiers to achieve consistent processing and targeted flame spread indices, with careful attention to electrical and mechanical integrity on finished cables. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
4. Thermosetting Epoxy Laminates for Printed Circuit Boards (PCBs)PCB laminate manufacturers use tetrabromodiphenyl ether to achieve controlled flame retardance in glass-fiber reinforced epoxy substrates. It addresses elevated safety requirements in computing, telecommunications, and industrial control electronics. Close monitoring of additive concentration ensures minimal migration and interaction with cured epoxy, maintaining high insulation resistance and mechanical resilience under thermal cycling. In-house laminate fire testing and trace bromine measurement ensure compliance and uniformity. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
5. Protective Textiles for Mass Transit Seating and UpholsteryTechnical textile weavers implement tetrabromodiphenyl ether into polyester or polyamide fibers for use in public transport seating and wall coverings. The additive allows fabrics to pass specific transport fire retardancy protocols while preserving colorfastness and abrasion tolerance. Quality teams fine-tune spin finish, dyeing, and curing conditions to ensure the brominated content remains active after finishing, as random sampling confirms durable fire resistance through multiple test cycles and washing procedures. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
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Few chemicals have shaped modern safety standards like Tetrabromodiphenyl Ether, known across the industry for its outstanding flame-retardant capabilities. In our facility, every kilogram comes from a meticulous batch process, where raw materials pass through quality checks, and careful controls over reaction conditions make the difference between ordinary and world-class product. This compound demonstrates its value most in plastics, electronics, and building materials—environments where safety demands a flame barrier, but other requirements like durability, compatibility, and cost also matter.
Our most requested model comes with a purity reaching better than 98%. Flake or fine powder forms each require specific expertise to process, from filtration to drying and milling—where strict attention to dust suppression mixes with regular equipment maintenance to control worker exposure and product consistency. Each lot passes chromatographic analysis for residual starting materials, since even minimal organobromine differences show up in downstream tests conducted by our customers’ QC laboratories.
Tetrabromodiphenyl Ether stands out by offering a robust bromine content, generally measured at about 67% by mass. This high loading delivers more flame-retardant action with less additive, overcoming some of the historic trade-offs between fire prevention and material performance. Hydrophobic by nature, this compound does not attract moisture, which means electrical insulation retains its properties in humid climates—something many older halogenated retardants struggle with.
We acknowledge the conversations about legacy flame retardants and their environmental impact. Years of research and regulatory feedback have driven us to optimize both the synthesis and the end-use performance of Tetrabromodiphenyl Ether. We test for trace impurities and screen for byproducts, using internal standards developed after thousands of batches. Every year, we collect feedback from clients—ranging from plastic sheet extruders to insulation foam producers—who confirm whether product performance aligns with safety and process targets.
Users often compare Tetrabromodiphenyl Ether with alternatives like decabromodiphenyl ether and hexabromocyclododecane. Having worked hands-on with all three, our staff knows the subtle differences each brings to manufacturing. Decabromodiphenyl ether, for example, demands higher application loadings for similar fire ratings and can affect material flexibility, resulting in more brittle products unless processing is finely tuned. Hexabromocyclododecane suits applications where foam integrity comes first, but its volatility during melting phases raises handling headaches and waste during production—especially on large extrusion lines.
Tetrabromodiphenyl Ether excels in value because it blends into most thermoplastic matrices without clumping or phase separation, even years after compounding. Particle size and surface area adjustments let our technical teams partner with customers for the best incorporation strategy, reducing waste and avoiding process shutdowns during scale-up. This perspective comes straight from work with customers who report fewer blocked extruder nozzles and lower cleaning times after switching. Meanwhile, customers report easier color matching in finished products by starting with our color-stable grade.
In wire and cable manufacturing, flame retardancy is just the start. Tetrabromodiphenyl Ether must also withstand high processing temperatures, avoid migration that leads to surface blooms, and resist breakdown from UV exposure or long-term use. Our teams regularly test application samples under harsher cycles than most standards require—thermal cycling, rapid spooling, and accelerated aging—using extrusion and injection lines on site before a single shipment leaves our warehouse. The aim is always a formulation that works in production, not just in the lab.
Furniture foam makers appreciate that our product does not disrupt foam cell formation. Blocks show uniform profiles and expectable density grades, unaffected by chemical interference that might compromise comfort or regulatory flame testing. Downstream, household products maintain compliance with global reach and RoHS directives, since we monitor halogen content and enable tracking from raw material intake through to finished product.
Sustained improvements come by listening to the plant floor and laboratory teams alike. More efficient solvent recovery not only reduces emissions but cuts costs, allowing us to reinvest in better reactor controls and higher throughput batch distillation. Employees monitor for airborne dust, and filtration captures any outsize particles that might affect downstream melt flows. Finished lots are sealed from air and humidity to preserve flowability and avoid caking, directly improving input consistency for our customers.
In each step, from bromine feedstock selection through to blending and packaging, we document process controls and material histories. This careful approach stems from decades dealing with audits, ISO certifications, and requests for regulatory certificates from partners around the world. Our in-house laboratory maintains archived samples so that traceability never becomes an afterthought. By supplying detailed, batch-specific certificates analyzed by trained chemists with years behind the bench, we make certain customers receive not only what's promised but also what performs best in practice.
Safety starts in the reactor bay, where dishwashing-grade gloves and surface wipes won't cut it. All employees train on respiratory best practices, since brominated dusts demand more than a passing respect. Airborne sampling data influences exhaust hood placement, while testing of settled dust ensures we keep clean both the shop and the storeroom. Each staff member receives routine physicals, and we rotate shifts at high-dust workstations to ensure no single worker bears the brunt of exposure.
We as a team take responsibility for the environmental footprint of our operations. Waste streams undergo treatment for residual bromine content before being neutralized. Water output faces monthly checks for both pH and residuals, meeting our region’s evolving discharge rules. This hands-on stewardship helps meet global sustainability targets—important for chemical companies facing scrutiny from both regulators and downstream brands.
Electronic device producers value the proven track record of Tetrabromodiphenyl Ether. Our teams watch trends in PCB manufacturing and cable sheathing, recognizing the tension between product miniaturization and increased heat stress. By working with engineering staff on compounders’ floors, we help troubleshoot issues such as incomplete melt mixing, stress cracking, or poor UL 94 ratings. Tailoring blends for solubility and thermal stability brings reliability to devices that must function without fail.
In construction, material suppliers count on consistent flame resistance for wall panels and insulation boards. We document feedback from these users and periodically send samples to outside labs for fresh compliance checks. This real-world loop—plant to application, back to plant—makes a difference, especially in project timelines and safety sign-offs. Building codes across North America and parts of Asia accept our material in standard flame-retardant formulations, tested not just once at certification but in recurring audits of actual production lines.
Vehicle component suppliers request Tetrabromodiphenyl Ether for passenger safety as well as manufacturing efficiency. By shipping pre-ground lots, we cut dust and reduce the chance of faulty batches due to improper mixing. Feedback from automotive clients led us to improve packaging, shifting to moisture-barrier liners that prevent caking and allow higher throughput in high-speed molding machines.
With direct factory shipment, delays from warehousing and repackaging fall away. By maintaining our own shipping and tracking standards, we reduce the risk of contamination that sometimes plagues intermediaries. Temperature and humidity controls both during storage and transit add peace of mind, reinforcing the value of a direct relationship between manufacturer and end-user. Whether supplying by pallet or bulk container, product traceability never gets lost along the way.
Logistics adapt to the needs of large or mid-size manufacturers. Our team works straight with port authorities, customs, and local shippers to shorten lead times, even in the face of fluctuating global regulations. Warehouse staff train to recognize and segregate any returned materials for thorough assessment, preventing the spread of out-of-spec lots to customers relying on reliable, predictable dosing in automated lines.
Some markets present new questions for all brominated flame retardants. We work closely with compliance teams to track updates, from Europe’s Stockholm Convention requirements on persistent organic pollutants to evolving requirements in East Asian markets. By gathering and storing compliance documentation—including reach and RoHS testing, as well as full raw material disclosure—we support the industry’s goal of keeping products both safe and up to code. In parallel, we continue investing in research partnerships and university consortia, aiming to reduce any byproducts or impurities.
Rising awareness of fire safety, especially in transportation and electronics, brings Tetrabromodiphenyl Ether back into focus. Despite shifts to non-halogen alternatives in some sectors, demand for proven, cost-effective smoke suppression drives use in developing regions where resources can be tight. Application specialists from our factory attend standards-setting committee meetings, lending our practical expertise to balance new safety standards with on-the-ground manufacturability.
Success in chemical manufacturing comes from ongoing attention to feedback. Customers routinely invite our process chemists on site to review loading levels or troubleshoot mechanical problems linked to additives. Our technical team maintains open feedback lines—phone, email, or in person—so that problems or new requirements never linger. Some of our longest partnerships started as simple product questions that led to plant visits, collaborative formulation, and years of reliable supply built on mutual respect.
Most days, we weigh and fill batches for dozens of clients, but real improvement comes from listening. Whether it’s an extruder operator flagging an odd melt flow or a safety officer pushing for dust-free handling, we fold those experiences into every lot we ship. This ground-level feedback shapes everything from cleaning schedules to suggested screw designs, letting us improve service and efficiency across the board.
It’s easy to overlook the role raw material producers play in downstream safety and performance. By prioritizing tight process control and full disclosure—what goes into each batch, how it’s mixed, and how it’s handled—we reinforce the trust that manufacturers, regulators, and ultimately the public place in finished products. Each sample, each container, reflects our factory’s decades-long commitment to both reliable performance and responsible care.
Our greatest asset lies in the experience and genuine care that goes into every step, from the chemical reactor to the end-user’s production line. The world of fire safety evolves, and so do the technical standards. We invest in research, not just to keep up but to challenge conventions—testing for performance before problems arise, phasing out unwanted impurities before they reach a client, and supporting the next generation of safe, efficient flame-retardant materials.
Tetrabromodiphenyl Ether continues to have a respected place in the modern safety toolbox, made possible by careful supervision, tested procedures, and close work with customer partners. By drawing from real plant-floor expertise, taking pride in responsible chemical stewardship, and backing up every claim with data, we support industry progress and greater peace of mind for everyone counting on flame-retarded plastics, electronics, and building materials today and tomorrow.