|
HS Code |
637847 |
| Chemical Name | T-Butyl Hydroperoxide |
| Synonyms | tert-Butyl hydroperoxide, TBHP |
| Molecular Formula | C4H10O2 |
| Molar Mass | 90.12 g/mol |
| Cas Number | 75-91-2 |
| Appearance | Colorless liquid |
| Odor | Sharp, pungent odor |
| Density | 0.93 g/cm³ (25°C) |
| Boiling Point | 35°C (95°F, decomposes) |
| Melting Point | -27°C (-17°F) |
| Solubility In Water | Miscible |
| Flash Point | 15°C (59°F) |
| Autoignition Temperature | 230°C (446°F) |
| Un Number | 3109 |
As an accredited T-Butyl Hydroperoxide factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | T-Butyl Hydroperoxide is packaged in a 1-liter amber glass bottle, featuring a secure screw cap and hazard warning labels. |
| Shipping | T-Butyl Hydroperoxide is shipped as a hazardous material under strict regulations. It must be packaged in approved containers, clearly labeled, and kept away from heat, sparks, and incompatible substances. Transport typically requires temperature controls and ventilation. Compliance with DOT, IATA, and IMDG guidelines is essential to ensure safe handling and delivery. |
| Storage | T-Butyl Hydroperoxide should be stored in a cool, dry, and well-ventilated area away from direct sunlight, heat sources, and incompatible materials such as reducing agents, acids, and combustibles. It must be kept in tightly closed, corrosion-resistant containers. Storage areas should be equipped with proper spill containment and explosion protection, as the chemical is highly reactive and potentially explosive. |
| Purity 70%: T-Butyl Hydroperoxide of 70% purity is used in polymerization initiators, where it enhances polymer yield and molecular weight distribution. Molecular weight 90.12 g/mol: T-Butyl Hydroperoxide with molecular weight 90.12 g/mol is used in fine chemical synthesis, where it provides controlled oxidation and high selectivity. Stability temperature 40°C: T-Butyl Hydroperoxide stable at 40°C is used in epoxy resin curing, where it ensures efficient crosslinking and robust mechanical properties. Density 0.94 g/cm³: T-Butyl Hydroperoxide with a density of 0.94 g/cm³ is used in pharmaceutical intermediate preparation, where it facilitates homogeneous mixing and reaction uniformity. Melting point -29°C: T-Butyl Hydroperoxide with a melting point of -29°C is used in industrial bleaching processes, where it improves color consistency in textiles and paper products. Liquid form: T-Butyl Hydroperoxide in liquid form is used in environmental remediation, where it provides rapid contaminant oxidation and high degradation rates. Flash point 15°C: T-Butyl Hydroperoxide with a flash point of 15°C is used in petrochemical alkoxylation, where it initiates reactions efficiently under controlled thermal conditions. Assay ≥99%: T-Butyl Hydroperoxide of assay ≥99% is used in laboratory-grade oxidation reactions, where it ensures reproducible and high-purity product formation. Water content ≤1%: T-Butyl Hydroperoxide with water content ≤1% is used in agrochemical synthesis, where it minimizes side reactions and maximizes active compound output. Peroxide value 8.5 mol/kg: T-Butyl Hydroperoxide with peroxide value 8.5 mol/kg is used in controlled halogenation, where it delivers consistent oxidation strength for targeted functionalization. |
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Manufacturing chemicals at industrial scale gives us a front-row seat to shifts in demand, changes in regulations, and the day-to-day realities of what customers actually need for their processes. T-Butyl Hydroperoxide (commonly known as TBHP) holds a special place in our lineup, not just as a popular organic peroxide, but because of what goes into delivering a product that meets serious quality benchmarks every time a drum leaves our facility. For years, we have supplied TBHP to industries that demand stable quality and predictable behavior in everything from polymerization to fine chemical synthesis. As a manufacturer, we feel the ripples of sloppy production in real-time, from on-spec feedback to customer downtime and safety incidents. That’s why the way TBHP is made, purified, handled, and delivered—matters as much as its price or catalog number.
Manufacturers like us spend a lot of time thinking about raw materials and process reliability. TBHP punches far above its weight as an initiator and oxidizing agent. In polymer and resin manufacturing, it helps kick off reactions that would otherwise take enormous amounts of effort. In pharmaceuticals, specialty chemicals, and even agricultural research, TBHP’s oxidizing power gives formulation teams reliable results batch after batch. The usefulness comes from more than just its oxygen content or reduced fire risk compared to other peroxides. TBHP manages an elegant balance of reactivity and safety—something that becomes clear when you compare its handling and shipping requirements to lower-boiling or more dangerous peroxides. As a manufacturer, we see the value upstream and downstream from the actual reaction—it’s about helping customers stay on schedule, reduce risk, and cut out variability. Less variability in our process means less downtime for our customers, fewer rejected lots, and tighter control over final product quality.
Details shape outcomes, and we’ve learned that purity, water content, and stabilizer type make big differences for end users of TBHP. Most of our production runs are set for TBHP solutions at 70% weight in water, which has become something of an industry standard. This strength balances safe storage and efficient shipping with enough oxidizing punch to drive challenging reactions. Different solvent blends also see use on occasion—TBHP in decane (about 80%-90%) appears in projects where water would interfere with downstream chemistry. Over the years, customers have asked us for ultra-low impurity grades, tight lot-to-lot consistency, and solutions that include specific additives or stabilizers. These conversations remind us every week that TBHP is rarely used “straight from the drum”—it’s a building block for more complex, value-added chemistry on our customers’ own lines. We maintain tracked documentation on lots, delivering Certificates of Analysis with every shipment, not because the paperwork looks good, but because we know how much hinges on users trusting and verifying raw material data in regulated manufacturing.
Every chemical handles a bit differently. TBHP sets itself apart from other organic peroxides like cumene hydroperoxide, di-tert-butyl peroxide, or hydrogen peroxide. For one, TBHP in water can be much safer to handle than dry powders or higher-boiling peroxides, which often need more complicated storage and carry unpredictable risks if mishandled. Vapor pressure, shelf life, and transport stability define the conversation for buyers that need bulk, not just lab-scale bottles. In the field, we’ve seen customers move to TBHP specifically to address insurance or environmental audit points, since TBHP’s fire risk and off-gas hazards are considered manageable in the proper solution forms. Inside our own plant, that same “workable danger” lets us scale production efficiently—our reactors, filtration, and packaging are all designed to minimize residuals and control exotherms. The knowledge built up from years of these challenges helps us troubleshoot customer questions quickly, especially for new process development or expansions into more specialized TBHP solvent blends.
Anyone who has managed pilot-scale or commercial lines knows that no two oxidizing agents act the same way. TBHP’s real advantage comes in selective oxidation, where it delivers oxygen with little risk of uncontrolled chain branching or excessive byproduct formation. This stands in contrast to, say, hydrogen peroxide, whose water-rich nature and strong reactivity profile cause major issues for equipment compatibility and side reactions in organic synthesis. Some of the larger peroxides, such as di-tert-butyl peroxide, promise shelf stability and high energy, but at the cost of significantly more aggressive hazard management. We push TBHP because it occupies a useful middle ground: strong enough to do the work, but manageable enough for routine industrial handling, and more forgiving under standard plant conditions than many of its peers.
Inconsistent input means unpredictable output—and that’s not a theoretical worry, it’s something every plant has struggled with during supplier transitions, process upsets, or maintenance-driven runs off-spec. The choice of stabilizer in TBHP can affect both long-term shelf life and reactivity in specific downstream applications. For customers in pharmaceuticals or critical materials, those stabilizers can’t just be “any organic base,” but must meet lists of avoidable components, non-interfering and traceable to source. For polymerization work or resin initiation, even small variations in water content or trace metals will influence molecular weight, batch time, and product color. Over the years, we’ve experienced firsthand how fine-tuned process control in TBHP synthesis—which covers everything from raw isobutane purity to reaction temperature holding—cuts down on these deviations. Regular audits, in-process controls, and end-product testing aren’t theoretical service quality measures; they reduce the number of tense calls we receive about predictive process failures and batch recalls.
We build safety into every run, not just because code demands it, but because the lessons of chemical manufacturing get written in near-misses and avoided disasters. TBHP’s mix of volatility, peroxide content, and pack-down logistics have guided how we invest in drum filling lines, tank truck protocols, and storage facilities over the decades. From stainless transfer lines to specialty coatings in drums, and real isolation zones in tanks, the line between reckless cost-cutting and smart safety grows clear when the unexpected arrives. We’ve seen how using subpar storage or short-changing on temperature controls makes expensive accidents more likely in extreme weather, or when containers enter long-distance export shipping. Our customers—many of them with similar safety routines and hazard analyses—expect us to shoulder these risks properly so they don’t have to rethink their own site protocols every order.
Each industry segment puts its own signature on what it needs from our TBHP operation. Synthetic resins benefit from high-volume, fast-turnaround deliveries of 70% aqueous TBHP, counting on absolute product consistency. Fine organic synthesis and R&D demand small-lot packaging, custom filtering, and support for troubleshooting rare reaction anomalies. Pharmaceuticals take things further, insisting on auditable production lines, controlled impurity profiles, and detailed stability data. Over time, we’ve learned that two-day lead time means everything to a foundry or resin customer, but it’s in-depth documentation and regulatory support that matter in pharma and specialty chemicals. Flexible fulfillment protects every sector from process disruptions, cuts sunk costs from delayed upstream lots, and helps build the kind of partnership where problems can be talked about openly, rather than glossed over until disaster strikes.
On-site safety walks and risk analyses show the real trade-offs between the cost of goods and maintaining a safe environment. As manufacturers, we see clients balancing lower price points against longer insurance forms, tighter delivery controls, and concerns over regulatory audits. TBHP helps here not just through its stable solution forms, but by giving process engineers a known quantity that doesn’t destabilize other site controls. In markets where quality issues or off-brands proliferate, customers have turned to us for guaranteed purity and consistency, even if it costs a bit more, because it spares them the wider costs of emergency response and lost product. After enough years handling everything from paperwork to process scale-ups, the equation makes sense: lower front-end risk and spend time, labor, and overhead where it matters—on output and safety, not supply chain firefighting.
Changes in environmental rules hit chemical manufacturers harder than almost any other sector. TBHP—unlike many other peroxides—rides above most bans on ozone precursors or VOCs because its breakdown products (t-butanol and water) pose lower risks than alternatives like acetone peroxides or chlorinated initiators. At the same time, global shipping regulations and local chemical management schemes increase the compliance hurdles for every container. Our investment in clean, traceable supply chains and rigorous document control stems from more than just regulatory fear; customers demand a clear story for each drum, not just to satisfy auditors, but to answer their own downstream clients. We adjust batch cleaning, switch loading schedules, and double-check labeling protocols so that every shipment can handle port inspections, spot regulatory checks, and cross-border document requests. This isn’t paperwork for paperwork’s sake—it keeps our lines moving, our partners confident, and our reputation in shape. After witnessing how disrupted or opaque supply chains slow down manufacturing lines, we doubled down on digital logistics systems and product authentication. These tools close the gap between on-site QC and real-time shipping visibility, letting everyone—from auditors to on-site managers—track each lot’s compliance and chain of custody. For us, regulatory friction means practical changes in warehousing, transport times, lot coding and sometimes, the pace at which we can fulfill spot orders.
The TBHP market isn’t always stable. Raw material shortages, energy cost spikes, or regional environmental events can swing both delivery and price. As the actual producer, not a trading intermediary, we watch these swings play out in our boilers, purchase orders, and process scheduling. During scarce periods, we’ve worked with customers to adjust blend ratios, revise storage capacity, or swap between delivery modes. This sort of flexibility does not emerge from a catalog, but from rolling up sleeves and maintaining strong communication with both suppliers and users. Forecasting demand accurately, diversifying critical material inputs, and building redundancy into plant schedules remain the strongest ways we’ve found to shelter our own operation—and by extension, our customer base—from shocks. We share our real-world challenges with customers to keep surprises to a minimum; the level of transparency expected today dwarfs what we saw even a decade ago.
Custom chemistry always walks a tightrope between specification and cost. Some customers—especially in pilot plant or custom synthesis work—insist on tailored solvent blends, unusual concentration batches, or unique trace element controls in TBHP. Our ability to handle these requests depends on both equipment flexibility and experienced process chemists willing to wrestle with new process setups. These niche demands offer challenges that we see as opportunities to improve mainline process understanding, and they make us far better at troubleshooting on-the-fly issues when an “off-the-shelf” product won’t fit. Experimentation and regular dialogue with technical teams at customer sites help avoid waste and reduce the risk of long development cycles. By understanding why each blend or concentration grade exists, our teams improve both the mainline and bespoke offerings, which keeps us ahead of regulatory drift and enables faster innovation elsewhere in the plant.
Industrial chemistry is evolving fast. TBHP’s compatibility with new green chemistry methods, especially selective oxidation systems and catalyst-driven syntheses, keeps it relevant in a world moving toward smaller environmental footprints. We’ve partnered with research groups working to minimize hazardous byproduct formation, and we’ve watched as TBHP-based systems often outclass more dangerous peroxides both in plant safety and regulatory compliance. Implementation of closed-loop handling systems, automated metering, and continuous flow reactions aligns perfectly with TBHP’s solution chemistry. These trends reduce worker exposure, improve conversion efficiency, and help meet energy goals, while preserving the high conversion yields that downstream industries require. Our ongoing work with customers looking to retrofit or design new plant lines ensures that TBHP keeps up with advances in reactor technology and process automation for fine and specialty chemical synthesis.
Long-term business in chemicals hinges on trust, technical support, and transparent operations. Every TBHP shipment represents an ongoing partnership, not just a transaction. Because questions don’t stop at delivery, we maintain open lines between our process engineers and customer teams, helping troubleshoot start-up issues, investigate batch inconsistencies, or support in-process safety reviews. We share lessons from our own plant, not just as “tips,” but as solutions shaped by hands-on experience in large-scale, high-risk operations. These exchanges build resilience into both our processes and our customers’ operations—catching issues early, sharing best practices, and making sure reliability matches specification sheets. We see fewer claims, more repeat buyers, and far stronger relationships by investing in training, periodic site visits, and quick-response root cause analyses. True value in TBHP sales comes after the initial delivery, through practical process support and technical troubleshooting as new challenges arise.
Our commitment as manufacturers goes beyond sourcing and order fulfillment. As TBHP finds new applications in advanced materials, pharmaceuticals, and regulatory-driven chemistry, the stakes for reliable, consistent production climb ever higher. Staying ahead means continuing to invest in process control, safety, and rapid response systems. We listen closely to customers, regulators, and the broader industry—seeing every challenge as a chance to strengthen not just individual product lines, but the entire supply chain. Ultimately, our experience with TBHP has reinforced a simple lesson that echoes across chemical manufacturing: product success depends on knowledge, care, and trust at every step from raw material to final delivery.