|
HS Code |
860314 |
| Cas Number | 1516-24-1 |
| Molecular Formula | C10H13NO3 |
| Molecular Weight | 195.22 g/mol |
| Iupac Name | 4-tert-butyl-2-nitrophenol |
| Appearance | Yellow to orange crystalline powder |
| Melting Point | 123-126 °C |
| Solubility In Water | Slightly soluble |
| Density | 1.22 g/cm³ |
| Purity | Typically ≥98% |
| Synonyms | 2-Nitro-4-tert-butylphenol |
| Storage Conditions | Store at 2-8°C, keep container tightly closed |
| Hazard Statements | H315 (Causes skin irritation), H319 (Causes serious eye irritation) |
As an accredited 4-Tert-Butyl-2-Nitrophenol factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 4-Tert-Butyl-2-Nitrophenol, 25g: Supplied in a sealed amber glass bottle with tamper-evident cap and hazard labeling for safe laboratory use. |
| Shipping | 4-Tert-Butyl-2-Nitrophenol is shipped in secure, sealed containers compliant with chemical transport regulations. Packages are clearly labeled, cushioned against breakage, and protected from moisture and extreme temperatures. Hazard information and safety data sheets accompany each shipment, ensuring safe handling and prompt identification during transit. Delivery is via certified chemical carriers. |
| Storage | 4-Tert-Butyl-2-Nitrophenol should be stored in a cool, dry, and well-ventilated area away from incompatible substances like strong oxidizers and reducing agents. Keep the container tightly closed, protected from light and moisture. Store in a chemical-resistant container, and label it clearly. Follow all safety regulations and handle with appropriate personal protective equipment to avoid skin and eye contact. |
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Among the classes of phenolic compounds in our production lines, 4-Tert-Butyl-2-Nitrophenol stands out for more than just its chemical structure. Continuous requests from researchers and specialty chemical developers prompted many rounds of fine-tuning, careful adjustment of parameters, and direct feedback from our customers has shaped the way we synthesize, purify, and supply this product.
Year after year in our facility, we have seen how minute variations in reaction conditions translate directly to batch purity, color, and stability. The nitro and tert-butyl groups, present in precise positions on the aromatic ring, require focused control when reacting, especially because this molecule responds acutely to temperature spikes and subtle changes in catalyst dosing. The resulting pale yellow solid has its own recognizable look and character, so each batch demands close inspection before final approval. Clumping, trace impurities, or unexpected off-colors do not pass our test bench, because reliability marks our output.
In our own usage and direct supply to industrial labs, the strength of this compound lies in its dual nature — the tert-butyl group adds steric bulk and influences solubility, while the nitro group opens doors to targeted reactivity. Most phenolic chemicals cannot match this unique combination. Stability under moderate conditions allows it to serve as a valuable intermediate in selective synthesis: rather than breaking down or discoloring under mild heating, it remains consistent, letting researchers drive their reactions with fewer side concerns about degradation.
Some of our longer-term clients run extensive oxidative coupling or targeted alkylation studies. 4-Tert-Butyl-2-Nitrophenol offers a reliable base in processes where lesser nitrophenols lead to uncontrolled side products. Certain herbicidal precursors, fine-tuned resins, and APIs (active pharmaceutical ingredient) pathways draw on its reactivity pattern to introduce specific functionality at predictable points. Batch after batch, the majority emphasize two qualities—clarity of product and freedom from contaminants—because those directly affect yields downstream. We address them at each stage, watching for moisture pick-up, iron contamination, and trace solvents, since these issues have hobbled progress in more than one innovation pipeline.
Once development proceeds toward larger scale, the fine points in specifications move front and center. Unlike broad-brush commodity standards, our routine analysis covers melting range, UV-Vis absorption profile, and content of the main component by HPLC. Each batch gets a hands-on check from one of our senior analysts before final certification. Nailing the expected melting point preserves confidence when users integrate this chemical into multi-step processes; reliable batch consistency means less second-guessing or retesting.
Particle size also gets attention. Granular forms clog dosing equipment. Oversized agglomerates break apart unevenly in blending steps. By controlling dry-milling and sieving parameters, we ship a flowable powder that our long-term partners expect to handle without loss or frustration. Few intermediates get as much scrutiny in packaging, since dusting has caused more than a handful of headaches in high-throughput labs.
Direct competitors in this space might use 2-nitrophenol, 4-nitrophenol, or more basic phenol derivatives in similar syntheses, but the tert-butyl addition changes the calculus. Other nitrophenols—whether ortho or para—isomers—rarely offer both the steric hindrance and the oil solubility profile we’ve seen with the 4-Tert-Butyl-2-Nitro version. For example, in reactions requiring controlled substitution or limited polymer crosslinking, the regular nitrophenol variants accelerate too quickly, leading to less selectivity and more waste. Instead of a broad, unmanageable reaction profile, our product draws a clear line, making pathway engineering tighter and more predictable.
Customers stepping up from a basic 2-nitrophenol frequently admire the boost in process yields, especially when managing side reactions or isolating intermediates in challenging environments. Standard para-nitrophenol lacks solubility in certain non-polar media—leading to undissolved residues and lower recoveries. The tert-butyl group in our version prevents that, allowing higher loadings in organic phases, especially for scale-up runs where every percent matters.
This chemical carries its weight in several applications. One recurring use comes from the agricultural sector, where it fits a narrowly-defined role as an intermediate in selective herbicides. Its particular substitution pattern supports the crafting of molecules designed to target weed enzymes without severely impacting crop species. Each research group running this pathway mentions the importance of purity—the presence of even small side products has ruined past reaction runs by introducing unanticipated biological effects or reducing crop tolerance to the final herbicidal agent.
Synthetic organic chemists have rerouted entire projects around our product for use in advanced materials creation, especially when targeting resins with high heat deformation resistance or tailored solubility characteristics. Material scientists tell us repeatedly that switching to our 4-Tert-Butyl-2-Nitrophenol leads to higher reproducibility and less guessing during process transitions from bench scale to pilot runs. The molecule’s structure shields functional groups, letting them design polymer blocks or chains with more predictable crosslink densities or thermal performance profiles.
Pharmaceutical teams call for this compound when designing intermediates where blocking groups and functional selectivity matter. It handles transformations that are both sterically and electronically sensitive, reducing overreaction and minimizing by-product formation. Middle steps in several patents and confidential projects have relied on our routine supply—years of synthesis experience reinforce the need to have material that not only matches the expected molecular signature but is consistent from order to order.
Chemical manufacturing rewards those who build repeatable, monitorable processes. We have seen how small adjustments—reaction time, color development, neutralization agent—cascade into measurable performance changes down our customers’ processing lines. Our quality benchmarks don’t grow from regulatory diagrams, but from first-hand stories about misfiring syntheses or inexplicable delays in client plants. We respond by setting the bar higher: every outgoing lot passes tests for residual solvent, trace iron, and organic impurities. More than a decade of refining protocols and batch tracking leaves no room for guesswork or drift.
A decade ago, dust and static build-up caused several rejected shipments. We now use humidity-controlled storage and anti-static liners in drum packing. Repeated audits proved this wasn’t just a paperwork exercise—real incidents vanished once we tightened procedures based on what staff saw and what clients reported. This direct feedback loop means quality steps get designed for the people actually handling the product, not just for safety checklists. Those lessons carry forward: each new batch may draw one or two minor changes in handling or formulation so issues don’t snowball.
Every drum of 4-Tert-Butyl-2-Nitrophenol we ship ties back to the responsibilities we face as hands-on producers. The nitro group, in combination with phenolic functionality, demands careful attention during storage and handling, both for us and for those downstream. Statistically, dust, mixing rates, and accidental electrostatic discharge matter more with this category of chemicals. To address those, we introduced routine checks and mandatory grounding procedures in loading bays and encourage customer audits. These add steps, but the old days of overconfidence or ignoring data points led to more near-misses than we care to remember.
Transportation remains a top concern. Certain months during peak humidity require us to check seals and secondary containment for each shipment. Internal recalls, introduced after a handful of shipping incidents, now prevent minor leaks. This pays off: over the past four years, we have not had a single documented transport loss involving this molecule. That means clients see prompt, clean deliveries and avoid delays tied to handling incidents.
Fluctuations in supply often arise from raw material bottlenecks outside anyone’s control. Because we keep strategic stocks of both the parent phenol and nitration components, we buffer downstream partners from most market whiplash. Twice, local shortages hit smaller manufacturers who could not source isobutylene. Scheduled, diversified sourcing prevented us from missing shipments, and allowed longtime customers to continue their operations without pauses.
We believe in keeping the line of communication open—rarely does a week go by without calls from clients pushing for tighter timelines or custom pack sizes. Reduction in average lead time remains a perpetual goal; after a few key upgrades in our purification workshop, on-hand inventory covers unplanned surges and specialty requests. Where some see logistics as a back-end concern, we approach it as an extension of the production process itself.
Our team’s collective experience shapes every batch. We do not believe in quiet laboratories or distant management. Floor operators, lab chemists, and dispatch crews work side by side, relaying real-world issues back up the chain. Three times yearly, all hands review common incidents: unexplained moisture, packaging quirks, or analysis oddities spark changes in SOPs. This atmosphere breeds direct troubleshooting, fewer recurring headaches, and more precise documentation compared to distant, hands-off oversight.
Tracing back adverse events, we often find root causes in moments of inattention to secondary processes—a missed drying cycle, a deviation in catalyst batch, an error in sieve mesh selection. We build in backup steps, retest older lots, and bias toward caution. While process automation has reduced some human error, experience points out the value of skilled eyes on every final analytical report.
The bar continues to move higher in specialty chemicals. Industry standards evolve quickly, especially as downstream users submit their own products to stricter environmental and consumer safety screens. Our safety documentation, batch certification process, and impurity screens respond not merely to law, but to anticipated shifts in practices across Europe, North America, and East Asia. Production lines often hold up shipments waiting on the latest evidence of process control or trace contaminant analyses, so we act ahead of the curve, adapting reports and monitoring for new requirements as they emerge in customer contracts.
Among nitrophenol producers, few dedicate as much time to updating SDS paperwork and impurity profiles in partnership with customer QA teams. Internal teams routinely communicate with regulatory consultants to ensure compliance not only with the present landscape but also with the contours of next-generation manufacturing.
In-house R&D groups devote significant effort to reimagining the synthesis of 4-Tert-Butyl-2-Nitrophenol to draw less on harsh reagents or reduce solvent usage. One result has been the partial switch to a less corrosive nitration process, saving both time and cost in effluent treatment. Over smaller pilot runs, new crystallization regimes improved filtration and reduced the load on drying ovens. Each time we achieve a reduction in waste, the effect ripples up and down the chain, beyond our plant gates.
Customers in sensitive markets, such as agricultural chemistry and pharmaceuticals, now show more interest in the sustainability profile. Transparency about process blocks, reclamation, and emissions data earns trust that one-off certifications cannot buy. Those partnerships shape the future—inviting incremental, data-driven improvement every quarter.
What counts more than stats or certificates is the trust earned from years of consistent results. Over dozens of projects, direct calls about unexpected project hurdles have prompted us to expedite new analytic protocols or create custom packaging solutions. Lab staff and production planners rely on a steady voice at the other end of the line and get transparency about scheduling and troubleshooting steps right away.
A focus on open dialogue, mutual adjustment, and fair feedback grounds every production run, ensuring the continuity that research teams and manufacturers rely on. Chemical manufacturing rarely flows in a perfectly straight line, particularly with a molecule as valuable and nuanced as 4-Tert-Butyl-2-Nitrophenol. Our commitment ties directly to the challenges and feedback shared by those closest to the real work.
Day-to-day production teaches humility and perspective for everyone involved. Delivering consistent, quality 4-Tert-Butyl-2-Nitrophenol demands a blend of technical mastery, attention to detail, and a willingness to adapt based on discussion with users at every level of the value chain. No process remains static, and improvements—born not from isolated innovation, but from listening and learning from those who push the product’s limits—ensure both clients and producers keep advancing. The path forward honors every lesson, every identified setback, and every hard-won improvement earned through years of focused practice.