|
HS Code |
441420 |
| Cas Number | 21850-44-2 |
| Molecular Formula | C21H20Br8O2 |
| Molecular Weight | 971.43 g/mol |
| Appearance | White to off-white powder |
| Melting Point | 110-120°C |
| Solubility In Water | Insoluble |
| Density | 2.18 g/cm³ |
| Bromine Content | Approximately 70% |
| Purity | ≥98% |
| Usage | Flame retardant for plastics and resins |
As an accredited Tetrabromobisphenol A-Bis(2,3 Dibromopropyl Ether)(BDDP) factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The packaging for Tetrabromobisphenol A-Bis(2,3 Dibromopropyl Ether) (BDDP), 25 kg, consists of a sealed fiber drum with inner polyethylene liner. |
| Container Loading (20′ FCL) | 20′ FCL container loading for BDDP: typically packed in 25kg bags, palletized; total net weight approx. 16–20 metric tons per container. |
| Shipping | Tetrabromobisphenol A-Bis(2,3 Dibromopropyl Ether) (BDDP) should be shipped in tightly sealed, clearly labeled containers, protected from moisture, and stored in a cool, dry place. Transport according to local, national, and international regulations for hazardous chemicals, with appropriate hazard labels for fire and environmental risks. Handle with suitable protective equipment. |
| Storage | Tetrabromobisphenol A-Bis(2,3 Dibromopropyl Ether) (BDDP) should be stored in a cool, dry, and well-ventilated area, away from direct sunlight and sources of ignition. Keep the container tightly closed, avoiding moisture and incompatible substances such as strong acids and oxidizers. Use suitable, labeled containers, and ensure proper grounding to prevent static discharge during handling and storage. |
| Shelf Life | Tetrabromobisphenol A-Bis(2,3 Dibromopropyl Ether) (BDDP) typically has a shelf life of two years when stored properly. |
Competitive Tetrabromobisphenol A-Bis(2,3 Dibromopropyl Ether)(BDDP) prices that fit your budget—flexible terms and customized quotes for every order.
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Every day in our plant, we work closely with large-volume synthesis of advanced flame retardants. Among the range, Tetrabromobisphenol A-Bis(2,3 Dibromopropyl Ether), often shorted to BDDP, has carved out a significant position for us and our users. We have watched the evolving needs across electrical, electronics, and thermoplastics industries, recognizing that typical brominated flame retardants don't always offer the same performance or processing advantages that BDDP can provide. This product came out of listening to customers under pressure to meet higher flame retardance standards in finished goods, especially where stricter limits exist on smoke generation and toxic by-products.
If you walk through our drum storage area, you will see BDDP in white or off-white powder form, with batch numbers ready for traceability. We follow strict procedures to maintain this consistency, so users avoid surprises during compounding. Our current production run lists the main model as BDDP-902, which has become the go-to variant for polyolefin and polystyrene processors looking for good handling, reliable dispersion, and predictable results in mass production. Typical bromine content ranges from 67 to 70 percent, supporting the high loading targets demanded by compounders. We repeatedly test particle size distribution to keep each shipment dialed in for direct incorporation into both extrusion and injection molding lines.
BDDP isn’t just another flame retardant on a list. The presence of both bisphenol A and dibromopropyl ether bridges creates a molecular structure that resists migration and blooming issues. In lab tests and pilot-scale extruders, lower volatility and maintained particle integrity translate into lower on-site emissions. Standard decabromodiphenyl ether (deca-BDE) or even tetrabromobisphenol A (TBBPA) alone rarely matches this performance level, especially in demanding cycles involving repeated heating and shearing. Customers running high-throughput lines notice less dust, fewer stoppages, and improved color stability in their finished materials. This feedback has steered us away from some older products still widely traded in the commodity market.
Wire and cable manufacturers make up a core segment for this product. Here, electrical safety compliance is non-negotiable. BDDP allows them to reach stringent UL 94 V-0 ratings without sacrificing tensile strength or elongation. In practical terms, wiring insulators using BDDP pass vertical flame spread tests while keeping physical properties within specification, even under extreme batch-to-batch comparisons. Polypropylene and polystyrene suppliers committed to halogenated flame protection also depend on our BDDP for masterbatches blended into appliance housings, TV casings, and connectors. Time after time, we hear from processors who achieved tighter production windows and fewer secondary additives compared to their old mixes.
With extrusion, throughput always hinges on the right additive package. BDDP, thanks to its finely tuned molecular weight and high thermal stability, flows seamlessly into most thermoplastics without plug or filter disruptions. Compounders deal with less odor during processing compared to certain older aromatic ethers, and the product excels under both traditional and high-shear twin-screw settings. Over the years, some customers who initially resisted replacing deca-BDE—preferring the familiar—eventually found that BDDP provides a cleaner shop environment, which aligns with today’s workplace safety initiatives.
Down on the shop floor, everyone wants predictability. Companies know failed flame tests or physical property drift can mean lost contracts or expensive recall scenarios. BDDP has built trust by helping downstream users avoid that outcome. Because its molecule combines high bromine density with bisphenol-based rigidity, BDDP lets compounders dial in flame resistance at a lower loading than some alternatives, often reducing overall costs by shrinking the additive package size.
Another core challenge has always been smooth substitution. Some traditional flame retardants bring regulatory baggage, as seen in the global phase-out of certain polybrominated diphenyl ethers. We keep a close watch on compliance. From our benches, BDDP’s low toxicity profile and robust eco-toxicity data keep it suitable for global export, unlike alternatives facing public scrutiny or increased regulatory action. This has allowed our customers to keep running formulae consistent even as outside rules shift, with no need to rewrite safety datasheets or requalify finished goods.
Not all brominated flame retardants behave the same in the field. Deca-BDE, once a market staple, often causes yellowing in white applications and suffers from poor high-temperature stability. TBBPA-based additives, while effective in rigid boards, can show migration over time and don’t blend as well with soft polyolefin systems. As we learned scaling up BDDP production, its ether linkage dampens migration, even under extended high-temp storage or long product lifespans.
Customers working with transparent styrenics or lightly pigmented applications notice the difference quickly: BDDP stays locked in, and polymer clarity remains higher for longer, limiting the costs assigned to yellowing or haze. For polyolefin applications such as pipes, films, or cable insulation, BDDP keeps properties uniform throughout the cross-section. In physical property tests, melt flow rates remain more stable, and mechanical performance tracks closer to flame-free resins, even at high loadings around 12 to 18 percent.
Environmentally-focused processors have commented on the lower emissions of aromatic fragments compared to older ether-based products. This becomes more critical as international markets tighten VOC requirements for both production and end-use environments. Workers and line managers have shared how plant atmospheres improve during compounding when BDDP displaces older, dustier powders. It’s not just about paperwork compliance — people see and feel the difference right in their day-to-day routine.
Producing BDDP reliably takes more than just reactors and filtration. Years of development and customer feedback went into minimizing impurities. Our process, currently running at a scale fit for container shipments, keeps each batch within strict limits for residual mono- and tribromo by-products. This means less risk of off-odors, surface exudation, or product qualification failures.
Logistically, we have managed to balance high output with full traceability. Each drum and supersack carries analysis reports verified against customer protocols, covering bromine assay, moisture, fine particle fraction, and batch origin. Some clients run their own validation, and we actively welcome their analytical teams to visit and sample straight off the process line. Over the years, this transparency has built lasting partnerships, as performance gets tested not in our story, but in the reality of customer equipment worldwide.
With electronics technology shifting rapidly, we see growing preference for raw materials with tested track records in both existing and emerging regulations. BDDP holds up well in polycarbonate blends, ABS, HIPS, and even modified polyalkylenes. We watch technology evolving toward lower smoke emissions and higher end-use durability, and our formulation team stays close to regulatory updates, REACH dossiers, and RoHS requirements. By keeping BDDP’s composition free of PBB, PBDE, and other restricted substances, we give users a smoother path through customs, finished product registration, and market entry compliance.
Feedback from North American, European, and Asian processors points to growing sensitivity toward end-of-life disposal questions. BDDP’s molecular structure sits lower in risk rankings for dioxin or furan formation during combustion phase, an advantage over legacy powder grades still traded in open markets. Integration into closed-loop recycling systems has also been trialed successfully in several regions, especially for industrial-grade polyolefin and styrenic blends.
Anyone running twin-screw lines or high-speed batch blenders knows the importance of dust control. BDDP’s particle morphology leads to reduced fugitive dust, lowering housekeeping and wear on dust filtration systems. During direct dosing or masterbatching, fewer airborne particles mean fewer employee complaints and lower filter clogging. We have hosted several open houses where purchasing managers and operators compare our BDDP to previously used grades. They notice right away — handling is cleaner, gravimetric feeders stay on spec, end-of-shift cleaning gets done faster.
End users working on filled or foamed systems also remark on steady melt flow and surface finish when compared with older deca-BDE or finely milled TBBPA blends. In multi-layer wire and cable extrusion, BDDP supplies a consistent degree of compatibility across adhesive, foam, and jacket layers. Even in high-pigment formulations, we have seen dramatic improvements in final surface gloss and color reproduction, especially under high throughput.
Worker safety guidance consistently points to lower skin and respiratory irritation potential for BDDP relative to low-molecular-weight, airborne-prone alternatives. We invest in proper ventilation and routine monitoring for dust, but reports from downstream users have shown reduced skin irritation and eye watering compared to older brominated blends. This helps explain why some large cable producers prefer our brominated ether to competitive powders, especially in regions where workplace exposure standards now call for tighter airborne dust controls. Our own safety committee reviews case data and continuously updates our handling recommendations to help protect both our workforce and yours.
The global appetite for certified flame retardants keeps shifting. Over the last decade, several product lines—especially those based on polybrominated diphenyl ethers—have faced restriction or outright bans in major markets. Companies relying on steadfast supply chains cannot afford even a temporary compliance scare. We invest in independent third-party validation for BDDP, certifying each lot against the latest REACH, RoHS, and EN fire performance standards. Because its chemistry sidesteps persistent bioaccumulative issues that have sunk competing materials, customers gain peace of mind rolling out new grades or adapting specifications in response to evolving law.
Traceability matters—not just for “green” claims but also for efficient recall or responsive support. Each order is tied to a manufacturing batch, and in many regions, we stock reserve samples for up to three years, giving users confidence when regulatory audits or product warranty questions emerge. The process builds trust along the chain, helping assure specifiers and buyers that they are sourcing not just a commodity ingredient, but a material backed by long-term data and open, accessible records.
As environmental priorities rise, we field more questions about end-of-life handling and environmental profile. Our internal data and published literature suggest BDDP behaves more predictably under incineration or mechanical recycling than older ether or diphenyl-based grades. Customers involved in trialing closed-loop systems report little impact on performance or color stability when BDDP is present at reasonable recycling rates. We continue to work closely with polymer science teams at customer sites to push forward with best practices in waste minimization and circular economy pilots.
Lower volatility and limited migration cut down on environmental losses during both production and application. We have seen customers achieve better long-term field stability, especially in outdoor or high-humidity installations, which further enhances the product’s value in minimizing long-term maintenance and replacement.
Our relationship with BDDP goes well beyond the synthesis line. We rely on open communication with processors, plant managers, and product developers. Feedback from pilot batches, field performance, and failure root-cause analyses informs our ongoing process refinement. This cycle drives changes not just in product purity but also in order turnaround time, shipment packaging, and real-world application troubleshooting. Batch-to-batch consistency makes a difference in global supply chains, and we recognize this as much as our technical colleagues do.
Whenever we encounter a complaint or report of unexpected property drift, teams from QA, R&D, and pilot plant all join in hands-on investigation, often running parallel blends side-by-side with customer input. It’s this practical collaboration that keeps quality at the level required by world-scale customers, whether they’re in cables, consumer electronics, automotive, or construction goods. The ongoing interchange is what sets our approach apart—rooted in decades of direct manufacturing experience rather than secondhand summaries or commodity trading.
We recognize that markets and technology never stand still. New polymer blends, stricter fire codes, and pressure for greener materials are a constant. BDDP’s robust chemistry and established performance mean it stands well-positioned for the next generation of applications, especially in sectors demanding both reliability and evolving environmental responsibility. Our research team remains engaged, both in formula optimization and in dialogue with chemists shaping industry standards.
We support our partners through transparent supply, responsive technical services, and consistent product quality tailored for long-term performance. This hands-on philosophy, carried out across our teams and supply partners, drives the continued evolution of BDDP as a trusted solution in modern fire safety challenges. As regulations and performance benchmarks move forward, manufacturers like us will keep driving improvements so that our materials—and your final goods—keep pace with both safety and sustainability.