|
HS Code |
980855 |
| Chemical Name | Tetrabromohydroquinone |
| Molecular Formula | C6H2Br4O2 |
| Molecular Weight | 469.7 g/mol |
| Cas Number | 496-72-0 |
| Appearance | White to off-white solid |
| Melting Point | 292-294 °C |
| Solubility In Water | Slightly soluble |
| Density | 3.23 g/cm³ |
| Boiling Point | Decomposes |
| Smiles | C1(=C(C(=C(C(=C1Br)Br)O)Br)O)Br |
| Synonyms | 2,3,5,6-Tetrabromo-1,4-benzenediol |
| Storage Conditions | Store in a cool, dry place |
| Pubchem Cid | 8759 |
As an accredited Tetrabromohydroquinone factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Tetrabromohydroquinone, 100g: Supplied in a sealed amber glass bottle with tamper-evident cap, labeled with chemical identifiers and hazard precautions. |
| Shipping | Tetrabromohydroquinone should be shipped in tightly sealed containers, protected from light and moisture. It must be labeled according to relevant regulations, and handled as a hazardous substance. Ensure appropriate cushioning and secondary containment. Transport in compliance with local and international chemical safety guidelines, with all necessary shipping documents and hazard information included. |
| Storage | Tetrabromohydroquinone should be stored in a cool, dry, well-ventilated area, away from sources of ignition and incompatible substances such as strong oxidizers and bases. Keep the container tightly closed and protect from light and moisture. Use chemical-resistant containers and clearly label them. Always handle in compliance with appropriate chemical hygiene and safety protocols. |
Applications of Tetrabromohydroquinone in Industrial ManufacturingTetrabromohydroquinone serves critical roles in high-demand industrial sectors due to its specialized chemical profile. As a direct manufacturer, we focus on stringent quality systems, precise formulation advice, and reliable technical support for downstream integration. Below are key industry applications, reflecting true downstream utilization and current compliance standards. 1. Flame Retardants for Engineering PlasticsMany engineering plastics producers select this compound as a brominated flame retardant additive to meet strict fire safety regulations in electronics, automotive, and electrical enclosures. It introduces high bromine content into polymeric matrices, enabling plastics to pass demanding vertical burn tests without excessive loading. Our QC teams validate each batch for purity, and customers blend the material in melt-kneader or extruder operations, minimizing negative impact on mechanical properties. Proper dosing supports compliance in E&E housings and circuit modules for export markets. Industry compliance standards
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2. Photographic and Imaging ChemicalsThe compound fulfills a key function in specialty developers and stabilization baths for photographic film and printing plates. Major imaging chemical formulators utilize its strong antioxidative properties to precisely modulate the redox chemistry during film exposure development. Accurate raw material characterization supports batch-to-batch consistency, preventing fogging or overdevelopment while meeting photographic grade purity. Formulators rely on documented process addition points and batch dosing aligned with emulsion manufacturer specification sheets. Industry compliance standards
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3. Specialty Intermediates for Agrochemical SynthesisSeveral multinational agrochemical producers utilize this material as a halogenated intermediate during the synthesis of advanced fungicide and pesticide active substances. Highly controlled supply with traceability documentation ensures compliance with statutory registration studies. The compound enters multi-step organic synthesis where bromination reaction steps require defined reactivity and minimal impurities. Production recipes are adjusted in accordance with target molecule’s structure–activity needs and efficacy testing data from field trials. Industry compliance standards
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4. Polymer Additives for Specialty CoatingsManufacturers of industrial coatings integrate this material as a flame-retardant and color-stabilizing additive for specialty architectural and transportation coatings. It supports compliance with reactive resin formulations used in panels, laminates, and interior coatings for rolling stock. Raw material introduction occurs at resin compounding or pigment wetting stages, where it combines with other synergists to achieve specific fire resistance classes without negatively impacting UV stability or gloss retention. Analytical QC by downstream customers checks for homogeneity and leaching in finished films. Industry compliance standards
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Producing Tetrabromohydroquinone means committing to tight purity standards, careful raw material selection, and a handle on process consistency that only time-tested experience can deliver. In the chemical industry, what goes in and how it is treated at every stage makes or breaks the value of the final compound. This product, often labeled under the trade abbreviation TBHQ or model number TBHQ-99, carries years of lab refinement on its back. Our plant doesn’t just run a formula; it runs a relationship with quality, and every shipment shows it.
Tetrabromohydroquinone is a brominated derivative of hydroquinone. In our hands, the synthesis and purification process reflect over a decade of accumulated know-how. The resulting solid powder ranges in color from off-white to faintly pink hues, depending on the batch and the subtle variations in reaction mother liquors or drying temperatures. Most applications call for a purity exceeding 99%, and we tune our systems to keep impurities below detectable thresholds.
End-users often compare Tetrabromohydroquinone to other halogenated phenolic intermediates. Its four bromine atoms bring unique physical and chemical advantages not seen with less heavily substituted compounds. We have found that the electron-withdrawing potency and increased molecular weight alter solubility profiles and reactivity in downstream syntheses. This means that TBHQ offers both manufacturers and research labs a broader range of formulation options, particularly where thermal stability and select selectivity are in play.
Compared with tribromo- and dichloro-hydroquinone forms, TBHQ brings a more robust resistance to oxidative degradation, a feature that the dye and photographic industries leverage to full effect. Given the right conditions, this compound will outperform its lighter counterparts, resisting color changes and unwanted polymerization longer. In one recent batch analysis, TBHQ showed less than 0.01% hydrolyzable halogen, far outpacing most market alternatives.
Working as an actual manufacturer means every order is shaped by plant operations. Bulk processing, distillation, recrystallization, and the most mundane parts of industrial chemistry accumulate into what customers see in the drum or kegs we prepare for shipment. Supply isn’t a matter of pulling from inventory—it’s the result of orchestrated steps that start with bromine and hydroquinone of high pedigree.
Each lot we create is tracked out of necessity: traceability, consistency, and regulatory compliance depend on it. Over the years, clients have told us that downstream application success often comes back to lot-specific details we hold and the sample archives we maintain. For chemical companies formulating flame retardants, TBHQ continues to show up as a critical intermediate—reacts consistently with selected aryl halides or unsaturated systems, delivers reproducible yields, and integrates seamlessly with known manufacturing modules.
Across years of direct feedback, three core uses stand out. In dyes and pigments, TBHQ acts as a building block for complex chromophore assemblies, especially where hue intensity and long shelf life are non-negotiables. Here, high-purity material ensures that base colorants display the tone designers expect without drifting under environmental pressure. Without cleaner TBHQ, visible shifts in transparency or depth start to appear.
In photo-chemical manufacturing, TBHQ participates in processes that tolerate little deviation. It serves as a core element in blocking agents and couplers, particularly those designed for high-resolution imaging applications. The reputation for minimizing side reactions and lowering unwanted background noise draws from consistent purity and crystal morphology, two benchmarks we track for every lot leaving our plant.
Flame retardants provide another stage. Here, TBHQ integrates into polybrominated aryl systems, acting as both an additive and reactive intermediate. Customers working in composite plastics report lower volatility and improved compatibility with other retardant components when they introduce our TBHQ at a defined temperature range. These differences show up clearly in their QC checks, meaning they can raise performance claims on finished insulation, wiring, or paneling products.
Manufacturing TBHQ never stops teaching lessons. Early on, we confronted crystallization bottlenecks—yield fluctuations sapped profitability and eroded delivery timelines. Over time, we invested in chilled reactor loops and semi-automatic filtration beds, finding that small temperature variances at crystallization could change particle size and flowability in handling. Agglomerates cost time, energy, and sometimes lots of wasted product. We tuned our protocols and solved the bulk density challenge. Today, our product consistently maintains a predictable sieve distribution, minimizing caking in transit and storage.
Static moisture poses another hurdle. TBHQ’s crystal surface will attract trace water in humid environments, which can affect downstream dissolution if left unchecked. Early storage containers were not up to the task. Stainless bins with humidity controls became standard only after too many customer complaints about minor clumping and handling losses. Through years, these small hardware changes deliver outsized impact: every shipment leaves with verified moisture content beneath 0.5%, eliminating these issues at customer sites.
Staff training counts, too. Mishandling raw bromine or skipping steps in a post-bromination wash can spell trouble, from discoloration to off-odor lots. Running a chemical plant demands that every operator trust process maps and never take shortcuts. We enforce strict handover records and parallel checks at every shift. Employees who understand why each control step matters help ensure every kilogram of TBHQ matches our documented expectations—and meets the application needs of the end-users.
Some manufacturers treat product specs like paperwork. In our plant, we see numbers as the backbone of the operation and the bridge to customer trust. On-site QA labs check every lot for purity by HPLC, water content by Karl Fischer titration, residual bromine by argentometric analysis, and visual inspection under controlled lighting for off-spec color. Customers, especially those focused on dyes, often review our accompanying certificates instead of running their own incoming QC—trust built on shared standards speaks volumes.
We avoid advertising catchphrases. Instead, we publish annual aggregates of product performance, cataloging complaint trends, resolutions, and batch-to-batch variance. Every year, new demand patterns or technical questions force updates in our analytical arsenal, whether that’s fine-tuning our mass spectrometry calibration or adopting accelerated stability testing to simulate weeks of shelf exposure in a matter of days. These tangible steps build a knowledge bank that keeps risk low for both operator and end-user.
On a molecular level, TBHQ differs from tribromohydroquinone and chlorinated derivatives in compactness and electron distribution. Real-world impact? More predictable integration into high-performance aromatic polymers and, in the right settings, longer-lasting activity in photoresist chemistry. In hands-on testing, TBHQ persists longer before breakdown under industrial UV exposure, bringing longer use-cycles and fewer material discard batches.
Sourcing hydroquinone with ultra-low iron and trace element levels brings a direct impact on downstream product outcome. One year, we trialed two sources, identical by paper but worlds apart in practice. Only the high-purity input produced consistently pale TBHQ. We ditched the second supplier after a single container—customer complaints from increased particulate and color instability weren’t worth the cost savings.
Other manufacturers sometimes tolerate higher process residues. Our system doesn’t. For example, incomplete bromination leaves dibromo or tribromo co-products, which become non-functional in most downstream recipes. Through feedback from several advanced materials clients, we learned how even a 0.2% impurity created faults in cross-linked polymers. Tighter controls came into play, and since then, failure rates plummeted.
Market knockoff material tends to show batch-to-batch inconsistency, especially for end-users operating at large scales. Feedback shows that inconsistent melting points, color changes, or presence of aromatic impurities in alternative sources can complicate both handling and formulation. Our process and scale let us supply uninterrupted, minimizing such issues.
From inside the manufacturing walls, environmental control is not about compliance box-checking but about risk management with direct operational impact. Brominated processes can generate waste streams with regulatory scrutiny attached. Over the years, we adopted closed-cycle bromine recovery and real-time effluent monitoring. Working ahead of regulatory changes saves time when compliance updates roll out. We run in a territory where waste minimization adds up: regulatory security, energy savings, and—most critically—fewer environmental incidents.
Customer demand for higher standards tracks with worldwide restriction trends. All outgoing TBHQ complies with prevailing REACH and GHS guidelines, and we update documentation as new data emerges from global panels. Third-party audits may sound daunting, but they create a valuable feedback loop and an opportunity to show off internal improvements. The push for “greener” halogenated intermediates continues, but for the moment, efficiency and reclaim practices are the levers we can pull.
On large-scale shipments, transportation safety boils down to packaging and labeling. Early mistakes with secondary containment taught hard lessons about the difference between paperwork compliance and real-world damage control. After years of examining field incidents, we now employ multi-layer drum liners, real-time temperature trackers during transit, and fast response systems should a load encounter shipping delays under less than ideal conditions.
Consistent TBHQ supply impacts upstream and downstream partners. As a manufacturer, watching the domino effect of delayed or off-spec batches throws into sharp relief the value of robust supplier relationships. Over time, we have moved away from just-in-time raw material procurement—stockouts or emergency air shipments grow costs and introduce uncertainty. Instead, we foster close ties with top-tier bromine and hydroquinone producers, keeping a buffer inventory on hand.
Every buyer, be it in Asia, Europe, or the Americas, brings location-specific rules and shipping challenges. We have tuned our logistics teams to anticipate common port hazards, navigate local documentation quirks, and move product smoothly from plant to end-user. Our role as a manufacturer does not pause at the loading dock; it extends to each point of entry, where regulatory checks or customs holdups can threaten downstream manufacturing schedules.
End-users also rely on transparency throughout the order pipeline. From pre-shipment sampling to digital batch records, customers receive more than a product—they gain access to the manufacturing story, which provides live context for application or troubleshooting. The rare times we face a hiccup, prompt data sharing turns potential loss into new trust.
In-house, we see opportunities for ongoing improvement. Scaling lines further and reducing energy consumption stand out as persistent targets, both for internal margins and for meeting ever-stricter carbon benchmarks. New reactor materials may reduce stuck material and speed up batch changeover. Automation upgrades can cut operator error, but operator expertise remains irreplaceable in detecting subtle off-spec events missed by software.
On the quality front, investing in faster and more sensitive in-line analytics shortens the loop between production and QA sign-off, avoiding costly rework or—worse—recall. By integrating real-time data feeds between production and laboratory teams, we spot drift early and take corrective action before compromised product ships.
Several customers from the electronic materials sector are pushing for even higher selectivity during bromination, aiming to push residual mono- or tribromo- out of detectable range. Meeting these needs sparks ongoing R&D investment, with parallel pilot lines testing different catalysts, solvent systems, and reaction controls.
Next on the horizon: tighter environmental safeguards. Vapor-phase bromine management and further closed-loop recovery represent cost, but also reputational security. In one year alone, tweaks to scrubber design and condensate recycling knocked over 15% off waste-related incident rates. These gains ripple up and down the TBHQ value chain, endearing our product even deeper into customer operations.
Standing behind TBHQ as its actual producer means accountability travels from early planning to finished delivery. It’s not about passively repeating catalog language or chasing short-term sales. Being hands-on lets us catch trend shifts early and keep the product aligned with emerging technical, regulatory, and environmental needs.
Our TBHQ flows directly from plant to customer. Dotted along that path are thousands of learning experiences, decisions, and quality checks. The end result isn’t just a chemical. It is the sum of ongoing effort, lessons taken to heart, and deep investment in every step of the supply chain. Customers know they receive material shaped by hands-on expertise—fit for their specific, demanding uses, and primed for front-line innovation in both new and established industries.
Every batch we ship is more than a fulfillment; it’s a record of what matters most in modern chemical manufacturing: trust, clarity, and relentless attention to both detail and impact.