|
HS Code |
602657 |
| Chemicalname | Phenol, 4-Tert-Butyl-2,6-Dinitro- |
| Casnumber | 88-72-2 |
| Molecularformula | C10H12N2O5 |
| Molecularweight | 240.21 g/mol |
| Appearance | Yellow solid |
| Meltingpoint | 109-111 °C |
| Solubilityinwater | Slightly soluble |
| Density | 1.36 g/cm3 |
| Synonyms | 4-tert-Butyl-2,6-dinitrophenol, Dinitro-tert-butylphenol |
| Smiles | CC(C)(C)C1=CC(=C(C(=C1)[N+](=O)[O-])O)[N+](=O)[O-] |
| Inchi | InChI=1S/C10H12N2O5/c1-10(2,3)6-4-7(11(15)16)9(14)8(5-6)12(17)18/h4-5,14H,1-3H3 |
| Logp | 3.9 |
| Storage | Store in a cool, dry place away from incompatible substances |
As an accredited Phenol, 4-Tert-Butyl-2,6-Dinitro- factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The packaging contains 25 grams of Phenol, 4-Tert-Butyl-2,6-Dinitro-, sealed in an amber glass bottle with safety labeling. |
| Shipping | Phenol, 4-Tert-Butyl-2,6-Dinitro-, is shipped as a hazardous chemical, typically in tightly sealed containers to prevent exposure to air and moisture. It requires labeling according to international transport regulations, such as UN number and hazard class. Use secondary containment and appropriate protective measures to minimize risks during transit. |
| Storage | Store **Phenol, 4-Tert-Butyl-2,6-Dinitro-** in a cool, dry, well-ventilated area away from heat, sparks, and open flames. Keep container tightly closed and stored in a corrosive-resistant, clearly labeled container. Protect from moisture and incompatible materials like strong bases and oxidizers. Unauthorized personnel should not access storage areas. Ensure proper spill containment and emergency procedures are in place. |
Competitive Phenol, 4-Tert-Butyl-2,6-Dinitro- prices that fit your budget—flexible terms and customized quotes for every order.
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Day in, day out, we handle many compounds, but Phenol, 4-Tert-Butyl-2,6-Dinitro-, often recognized for its stability and reliable chemical behavior, stands out in our catalogue. Our team moves with precision through every stage, knowing this molecule demands consistent attention during nitration and isolation. The process builds on decades of refinement, hard-won improvements that show through with every batch cleared from our reactors. This compound, also known in some laboratories as Dinoterb, shows a yellow-to-brown crystalline solid, but what matters most in our work isn't the color—it's the performance characteristics, and how it fits into broader chemical solutions.
For us, there’s no shortcut to purity. Each lot undergoes instrumentation-based analysis, from HPLC to melting point checks, again and again. We direct our quality teams to focus on nitro group integrity and tert-butyl substitution, as even minor shifts might affect downstream behavior in synthesis. The market has seen fluctuations in supply before, but our facility’s investment in high-precision reactors and continuous training means quality never comes from luck. Where some producers mix in lower-grade intermediates or accept inconsistent heating cycles, our operators maintain a strict recipe—higher energy input when nitrating, more rigorous cooling steps, no sloppy handling between vessels. Regular audits and equipment calibration drive lot-to-lot repeatability.
Specifications for Phenol, 4-Tert-Butyl-2,6-Dinitro- reflect what chemists need on the floor. Our product typically shows a high assay value, approaching 99 percent on dry basis, minimizing impurities that could throw off sensitive downstream formulations. Moisture content is kept tightly below 0.5 percent, and we achieve a finely controlled melting range, allowing for reliable handling in different climates and storage conditions. These numbers mirror what chemical engineers have asked us for—tight melting range, minimal trace organics, and consistent shelf-life under ordinary lab storage. What’s not in the bottle matters just as much: we target heavy metal and halide contamination to negligible levels, so unwanted side reactions stay out of your process. We don’t publish numbers that can’t be verified by our QC benches; if any figure is disputed, we start a new batch investigation, not a marketing spin.
Most clients request 4-Tert-Butyl-2,6-Dinitrophenol for its roles in specialty organic synthesis and agrochemical manufacturing. The chemical structure lends itself to being a key intermediate in the production of herbicides and other plant-protection agents, but its utility branches out beyond that. Some research teams employ this molecule as a reference standard, others utilize its reactivity for targeted chemical modifications in aromatic nitro chemistry. Small-scale custom syntheses also benefit: its tert-butyl group enforces steric hindrance that facilitates selective reactions, leading to cleaner yields in crowded aromatic substitution processes. What we hear from synthesis chemists time and again is that our batches display a dependable reactivity, not prone to the unpredictable lags or runaway exotherms reported with lesser-quality materials.
To some, nitrophenols might sound similar, but making 4-Tert-Butyl-2,6-Dinitro-Phenol is a different story than knocking together ordinary dinitrophenols. The tert-butyl group at the para position alters its solubility, thermal stability, and even its reactivity profile under reduction or alkylation. Manufacturers sometimes treat all nitrophenols as interchangeable precursors, but in practice, batch consistency for this molecule means the difference between crisp endpoint reactions and sluggish, partly reacted mixtures. The double nitration pattern also gives this product a higher density and a particular response during purification—something our teams account for with custom filtration setups and staged drying cycles. These physical properties might complicate logistics, but they also enable fine-tuned control in your own processes, assuming the supply is uniform.
Decades of real-world handling have taught us the pitfalls and best practices for this product. We prevent unnecessary dust formation during transfer, since the fine crystalline nature can lead to airborne exposure risks—a reminder not to cut corners with containment. Storage benefits from a balance: neither overly humid nor dry conditions allow the compound to maintain integrity. Thanks to internal studies, we use thick-walled, opaque drums, minimizing UV exposure and ambient temperature spikes. Inventory teams coordinate closely with lab teams to rotate stock, based on first-in, first-out principles, without letting time degrade the phenol’s purity. Many users take for granted the final presentation of a well-labeled drum, but behind it stands a series of environmental controls and a dedicated logistics protocol.
The chemical production sector faces rising expectations for greener tactics and safer process controls. In our plant, efforts focus not just on waste minimization, but also on solvent recovery and emissions management. Nitration creates demanding effluent streams, so responsible operations dedicate capital to closed-loop washing, neutralization, and solvent distillation. Real reductions in chemical usage come not from hopeful slogans, but from tracked metrics: we map every batch’s solvent use and water demand, and pursue yield improvements to cut waste at the root. Our technical staff frequently submits internal proposals to reuse secondary solvents and implement fractional crystallization, which wins us both environmental recognition and lower input costs. We believe practical experience—process audits, not theories—drives steady environmental gains year after year.
Clients often need to look back through their supply chain for regulatory filings or performance reviews. Each drum of 4-Tert-Butyl-2,6-Dinitrophenol leaves our site tied to a transparent traceability system reaching every upstream raw material. Anything that enters a batch shows as a verified component in the final product record, from base phenol input to the nitric acid source. Our traceability also covers operator signatures and shift logs, so any inquiry quickly links to the real people and steps behind a drum. Auditors—either from customers or from regulatory bodies—see this documentation first-hand in our facilities. We believe you shouldn’t need to chase paper trails or patch over gaps with speculative history.
Over the years, clients’ requests have shifted. Synthetic chemists ask for tighter impurity control as their own analytical techniques grow sharper. Some major formulators require smaller, easier-to-handle pack sizes for lab-scale development, while larger industry groups want everything in bulk. Our planning department gathers these signals and works with production to align new batch sizes, packaging styles, and handling practices. A couple of years ago, a surge in demand for customized particle sizes prompted our team to retool our grinding and sieving area, fine-tuning particle distributions to better meet our users’ flowability preferences. Each change comes at a cost, but hearing back from end-users proves the investment pays off: better product performance means fewer call-backs and less downtime.
Supply interruptions hit users hard, and producers know the underlying reasons well: supply chain bottlenecks, regulatory reviews, or transport delays can throw schedules into disarray. We address these head-on with diversified raw material sourcing, and we stock critical reagents beyond minimum levels suggested in theoretical planning guides. Our warehouse teams work overtime during periods of higher demand, and we’ve built redundant process lines that let us keep going even if a single piece of equipment needs attention. Every supply disruption brings lessons—sometimes harsh ones. During the last region-wide shortage of nitrating agents, quick adaptation to alternative suppliers kept our deliveries on schedule, but only because preexisting relationships had been maintained. Reputational trust never results from paperwork alone—it builds from consistent experience, crisis after crisis.
Experience-driven process discipline forms the backbone of our approach to chemical safety, long before labels and documents ever reach end-users. Handling aromatic nitro compounds teaches deep respect for best practices—grounded metal surfaces, strict ventilation, and real-time monitoring of vapor or particulate levels during charging, blending, or unloading activities. Each week, our safety staff inspects transfer lines, evaluates shielded process areas, and observes loading procedures to catch any unsafe routines before they take root. For laboratory-scale clients, our technical support includes practical tips based on years of direct handling: neutral absorbents for spills, avoiding open flames in the vicinity, and quick cleanup guidelines. Our safety recommendations use the same standards applied within our own walls—the only difference is the scale.
Decisions on how a batch is run draw from ongoing research: kinetic studies, impurity tracking, and pilot-scale trials to validate even small procedural shifts. Our R&D group reviews literature, partners with academic groups, and runs parallel process validation alongside routine manufacturing. Practical knowledge matters, but so do hard numbers—we track reaction exotherms, batch yield per input, and spectroscopic signatures for every formulation. These data build a feedback loop, improving the next run and guiding formulation tweaks to increase yield, stabilize shelf life, or reduce process time. Customers sometimes collaborate directly with us in pilot-scale campaigns or custom batch manufacture, gaining confidence from direct oversight of our operations. No process stays static, and experience only grows through continuous feedback and validation.
Open lines of communication between clients and our manufacturing teams help address any product or process tweaks that might improve performance. We invite incoming customer queries—not just complaints, but suggestions for formulation tweaks, feedback on packaging usability, or thoughts on how mixing speed or particle size might affect solubility in downstream reactions. Every improvement starts with open ears. Recently, by consulting with a large-volume agrochemical client, we adjusted crystallization rates to minimize clumping on their automated lines—a difference invisible in a pure certificate of analysis, but very clear on a full-scale production shift. Without these first-hand reports, even the best chemist’s intuition falls short once the product hits complex, real-world scenarios.
Modern regulations shape every aspect of manufacturing, from raw material intake to labeling and shipment. Regulatory affairs teams coordinate with operations so all batches reflect up-to-date registration requirements and hazard communication standards. As compliance expectations become more rigorous, especially for nitrophenol derivatives, we invest in regular staff training and document reviews, and we proactively update labeling and transport documentation. Rather than scramble to meet changing standards, we stay ahead of them—a stance requiring constant vigilance: tracking global developments, dialogue with authorities, and adapting documentation before new rules reach the warehouse or shipping dock. Some of our customers notice the difference most in the absence of shipping delays or documentation rework.
Our customers don’t just buy a chemical—they invest in seamless operations, regulatory security, and dependable outcomes. Manufacturing 4-Tert-Butyl-2,6-Dinitrophenol with the expected properties means every downstream step, from laboratory research to high-volume reactor charging, can stay focused where it matters. Small variations in crystalline form, batch aging, or contamination might seem minor on a spec sheet, but in practice they trigger real costs: downtime, rework, even lost batches. Our experience on the factory floor underlines that every user—whether running an academic assay or scaling to full plant output—counts on these details to stay constant.
Real progress sometimes comes from unseen corners—incremental improvements in purity or packaging, practical insights gained only after years of hands-on production, or problem-solving collaborations bridging production with R&D labs. As users develop new applications for nitroaromatic intermediates, we respond by tightening process controls, documenting emerging impurities, or even exploring greener nitration methods. Many years in this business show that no product remains unchanged: uses evolve, specifications shift, and unexpected discoveries prompt rapid adaptation in both plant and partner labs. We carry forward the practical lessons of past batches, sharing new findings and adapting methods not for novelty’s sake but for meaningful, verifiable gains.
The journey of every batch of Phenol, 4-Tert-Butyl-2,6-Dinitro- carries traces of every technician’s experience, every planning meeting’s debate, every late-night adjustment in the control room. Making this compound for others’ use connects us to broader efforts: cleaner chemistry, safer work environments, more predictable synthesis outcomes. Ours is a world measured not just by certificates or press releases, but by every successful batch, every industry advance achieved side-by-side with our clients. We see our success in the confidence with which users draw product from our drums, ready to push chemistry forward, knowing the foundation holds strong.