|
HS Code |
789627 |
| Chemical Name | Tert-Butyl Hydroperoxide |
| Synonyms | TBHP, tert-Butyl hydrogen peroxide |
| Cas Number | 75-91-2 |
| Molecular Formula | C4H10O2 |
| Molar Mass | 90.12 g/mol |
| Appearance | Colorless liquid |
| Odor | Pungent, unpleasant |
| Density | 0.88 g/cm3 (at 20°C) |
| Boiling Point | 35-38°C (decomposes) |
| Solubility In Water | Miscible |
| Flash Point | 15°C (closed cup) |
| Melting Point | -27°C |
| Stability | Unstable, decomposes explosively above 80°C |
As an accredited Tert-Butyl Hydroperoxide factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 250 mL amber glass bottle, tightly sealed, labeled with hazard symbols, handling precautions, and chemical details: "Tert-Butyl Hydroperoxide, 250 mL." |
| Container Loading (20′ FCL) | Container Loading (20′ FCL) for Tert-Butyl Hydroperoxide: Securely packed in drums, ensuring safe transport, complies with international hazardous chemical shipping standards. |
| Shipping | Tert-Butyl Hydroperoxide must be shipped in compliance with hazardous materials regulations. It should be packed in appropriate, tightly sealed containers, kept upright, and cushioned to prevent breakage. It must be clearly labeled as a flammable organic peroxide and transported separately from incompatible substances, avoiding heat, sunlight, and sources of ignition during transit. |
| Storage | Tert-Butyl Hydroperoxide should be stored in a cool, dry, well-ventilated area away from heat, sparks, flames, and direct sunlight. Use tightly closed, non-reactive containers, preferably made of polyethylene or stainless steel. Keep separate from reducing agents, acids, bases, and combustible materials. Protect from physical damage and regularly inspect containers for leaks or signs of decomposition. Store in accordance with local regulations. |
| Shelf Life | Tert-Butyl Hydroperoxide typically has a shelf life of 12–24 months when stored in a cool, dry, well-ventilated area, away from sunlight. |
Competitive Tert-Butyl Hydroperoxide prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please call us at +8615365186327 or mail to sales3@liwei-chem.com.
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In our years of producing Tert-Butyl Hydroperoxide (TBHP), known by its CAS number 75-91-2, we have refined both our understanding and our process. TBHP flows into the company as more than just another chemical—it stands out for its unique place in both organic synthesis and industrial chemistry. The most widespread form we supply is the 70% aqueous solution, a balance between safety and performance. Flammable, reactive, and offering high oxygen content, TBHP lends itself to a variety of reactions, not only for experienced chemists but also for large-scale industrial operations needing reliability and consistency.
TBHP plays a major role in producing epoxides from olefins—an essential step in epoxy resin manufacturing, which in turn emerges in protective coatings, adhesives, and advanced composites. Chemists appreciate TBHP for its oxidative power and selectivity. We have seen its adoption for Baeyer–Villiger oxidations, metal-catalyzed radical reactions, and initiated polymerizations—applications difficult to handle with weaker or more hazardous oxidants. In fine chemical synthesis, TBHP finds its way into laboratories and plants focusing on pharmaceuticals, agrochemicals, and specialty intermediates. In production, we often collaborate with partners demanding fine-tuned control, given TBHP’s sensitive oxidizing character and the impact that even minor impurities can have during scaled-up synthesis.
Strict attention to purity and consistency shapes our TBHP manufacturing. Over the years, we have kept the peroxide content above 69.0% and maintained water content within targeted bounds. This limits the risks during storage and transport, supporting both process safety and product stability. Each batch undergoes careful titration and testing, reducing unknowns for downstream users. Sulphur and acid traces remain tightly controlled, so catalysts do not deactivate prematurely or prompt off-pathway reactions. Our TBHP leaves the reactor and filling line filtered, clear, and uniform, so customers receive what they expect. In logistics, we work with special containers and climate considerations, since TBHP gets sensitive to heat and light. We do not compromise storage standards, no matter the destination.
Having handled alternative oxidants, the differences are not lost on us. Hydrogen peroxide offers its own advantages, especially in water-based applications and bleaching. TBHP, though, brings organic solubility, making it effectual for non-aqueous media and specialty substrates. With a higher boiling point than di-tert-butyl peroxide and less volatility than methyl ethyl ketone peroxide, TBHP becomes practical for specific continuous-flow systems. In catalytic oxidations—especially with transition metals like vanadium and ruthenium—our partners report more predictable outcomes and cleaner separations with TBHP than with other sources. Unlike benzoyl peroxide, which often demands powder handling and raises dust hazards, TBHP’s liquid form lends itself to automated dosing and precise control, important on both kilo and multi-ton scales.
Our plant operators learn early about the hazards tied to TBHP: it reacts fiercely with incompatible materials, and releases oxygen enough to support ignition where most other organics would snuff it out. Mistakes rarely go unnoticed, so we consider every step from synthesis to shipment with both safety and sustainability in mind. TBHP does not linger long in the environment when diluted and neutralized—it degrades to tert-butanol and oxygen. Still, any release calls for care and containment. In our facility, closed systems, gas monitors, and stringent housekeeping stop leaks from becoming incidents. Workers train for emergency neutralization and use of specialized firefighting gear, as water alone cannot address an oxidizer-fed fire. Supplying TBHP means supplying headache-free guidance, too; our technical staff spends time helping our customers install proper ventilation, double-walled tanks, and correct instrumentation for monitoring and dosing.
From the initial synthesis—combining isobutane and oxygen under catalytic conditions—the reaction produces not only TBHP but also possible by-products, such as tert-butanol and traces of acids. Control remains the cornerstone of quality. Using refined isobutane feedstocks and continuous process monitoring, we keep the product free from contaminants that would interfere downstream. Some years back, variations in catalyst quality and oxygen purity affected our output, so we learned to work closer with suppliers, not just buying feedstocks but qualifying them batch by batch. As demand has shifted toward cleaner oxidations and fewer chlorinated by-products, our team adapted synthesis routes to minimize waste and vent gases, all while meeting tighter purity thresholds.
Listening to customer accounts, we have seen how TBHP shapes processes in both large and small settings. One resin manufacturer’s adoption of TBHP over cumene hydroperoxide cut reaction times and improved yield, directly reducing energy use. A midsize pharmaceutical plant explained that, with our TBHP’s purity, their batch rejection rate for a key API intermediate dropped nearly to zero, translating to less downtime. Another group, working in agricultural chemicals, credits our stable supply with helping them maintain uninterrupted campaign production during peak season. Practical outcomes like these matter more to us than sales figures: they shape how we test, package, and deliver every shipment.
Demands vary—one region wants custom packaging for easier drum handling; another presses for higher concentrations in bulk ISO tankers. Years of serving these differences taught us neither specification nor customer feedback remains static. The market does not wait for manufacturers to catch up, so we adapt on the fly—improving filtration in one month, shifting to stainless steel drums the next, revisiting label traceability for regulatory import checks soon after. Delivering TBHP at consistent quality depends on marrying strong protocols with flexibility. Our batch records tie every drum back to test data, so plant chemists can troubleshoot if any anomaly arises during the run. While new uses for TBHP arise, such as in advanced polymerizations or environmental oxidation technologies, our lines remain open to technical queries long after the first shipment lands.
Environmental regulations keep tightening worldwide, affecting the allowable volume, packaging type, and transport conditions for TBHP. Sustainable sourcing comes up more often, as customers face pressure from both regulators and stakeholders to trace chemicals upstream. Our audit teams prepare more documentation and certification now than a decade ago, all while ensuring that product quality does not slide. Demand growth in Asia and Eastern Europe led us to scale up, doubling reactor size and installing more advanced safety interlocks. Raw material prices fluctuate wildly, as upstream oil and gas costs sway the isobutane and catalyst markets. Our experience lets us hedge supply contracts and keep production viable regardless of these swings. Price alone rarely dominates buying decisions; available safety data, reliable technical support, and prompt delivery tips the scales for sophisticated buyers.
Our chemists spend time on the bench evaluating TBHP reactivity with sample substrates before scaling up. In epoxidation, TBHP stands out for its selectivity with less over-oxidation, making it a favorite for both laboratory syntheses and major resin producers. Some catalytic systems, such as those based on molybdenum or vanadium complexes, not only tolerate TBHP but perform better than with any alternate oxidant we have tried. By comparison, hydrogen peroxide loses edge when a solvent system turns less polar, while organic peroxides like benzoyl peroxide or di-tert-butyl peroxide have their limits—some degrade too slowly or bring unwanted functional groups. In polymerizations, TBHP initiates reactions that demand tight control over molecular weight, branching, or end-group composition. Not every plant runs with standard conditions, so we often assist with test runs and dosing modifications to help customers achieve their performance benchmarks.
Improper packaging or a missed notice on compatibility can spell real trouble. We continue to work with container suppliers to ensure that every drum, IBC, and road tanker meets chemical compatibility standards for TBHP. Even seemingly minor factors—a gasket selection, a drum vent—carry outsize importance, given TBHP’s tendency to generate gas or build pressure under warm conditions. Most plant operators know never to store TBHP near acids, reducing agents, or easily oxidizable compounds. Our practice has always been to couple physical separation (dedicated storage) with paperwork—everything tracked, documented, and regularly inspected. TBHP calls for firm control of temperature and exclusion of light for long-term storage. Better tracking and inventory systems reduced the risk of ‘forgotten drums’ over the years, lowering our incident reports. Whenever a special bulk order comes through, our logistics and technical teams huddle to plan the safest, fastest route with cost and compliance as ongoing priorities.
Government authorities and industry standards groups watch oxidizers closely. TBHP sits among substances strictly regulated for concentration, packaging, and labeling. Over the past decade, we have fielded more compliance audits and requests for detailed product safety dossiers. Certain markets expect REACH compliance and GHS labeling, not only for export but for domestic use as well. Our regulatory team works ahead of deadlines by staying in touch with legal updates, communicating with end users on downstream handling, and supplying credible documentation for customs clearance or hazardous material declarations. TBHP’s transport by sea, rail, or highway all bring their own requirements—even small lapses in data can delay delivery or trigger penalties. Our routine includes annual training on compliance changes, refreshers for shipping personnel, and dialogue with partners so process adjustments are both timely and cost-effective.
The chemical industry faces growing scrutiny on sustainability. TBHP production relies on petrochemical feedstocks, and the oxidation process, by its nature, demands vigilance to minimize emissions and wastes. We track every input and output stream, seeking ways to reduce water and energy use while maintaining the high purity level customers expect. Closed-loop systems and advanced monitoring help us catch leaks early and recycle or treat waste streams more efficiently than we did a decade ago. Partnerships with customers have spawned initiatives for drum and bulk container reuse or take-back, which both reduces environmental impact and builds trust across the supply chain. Sourcing catalysts and additives with proven lower environmental footprints remains a challenge, but our R&D division keeps searching and testing options. Long-term, we anticipate even stricter regulations and rising customer expectations, so our processes and safety protocols keep evolving with those trends front of mind.
Selling TBHP does not end with the sale. Technical teams remain central in maintaining safe, effective use at every stage. Customers often call with questions beyond specifications—mixing protocols, troubleshooting reaction behavior, or resolving storage issues at their own sites. From our technical files, decades of case logs show the recurring value in supporting customers through test-batch evaluation, process optimization, and compliance checks. In some cases, misunderstandings about TBHP properties led to misapplied storage or dosing, so we publish not just safety data but practical bulletins and host seminars for both new and seasoned buyers. Our aim is to close knowledge gaps and prevent incidents that could threaten both people and business continuity. In some regions, language and regulatory differences complicate the education process, yet investing time early in training and tech support reduces major headaches—and builds loyalty—for the long haul.
Every year brings opportunities for process improvement. We audit feedback, address bottlenecks, and test new approaches for both synthesis and packaging. Emerging oxidant technologies may one day rival TBHP in some reactions, but close study of current market needs shows that stability, available supply, and technical know-how tip the scales in TBHP’s favor. As more industries favor green chemistry, we continue adapting our methods and raw materials for a smaller footprint, all while ensuring that customers have what they require for both established and new synthetic applications. We reach out to equipment makers as well, promoting innovations in dosing, storage, and safety hardware that fit TBHP’s particular profile. These advances ultimately help users lower risk and improve output, shaping the ongoing story of TBHP in a changing world.
To those of us producing TBHP day after day, it’s more than just chemistry; it’s about trust, safety, and meeting real-world needs with each batch. Few chemicals occupy such a dynamic role, from the depths of reaction vessels to the ends of industrial pipelines and laboratory benches. Our commitment is not static but evolving—grounded in hands-on experience, constant dialogue with customers, and the drive to do better every season. We see firsthand how this molecule transforms other industries, and we know the best outcomes arise from genuine partnership between manufacturer and user. TBHP’s story continues, written not in abstract properties but in practical achievements, safe handling, and the everyday dedication that only comes from knowing the molecule up close.