|
HS Code |
598325 |
| Chemicalname | 2,4-Dibromo-6-((4-Hydroxy-Cyclohexylimino)-Methyl)-Phenol |
| Molecularformula | C13H15Br2NO2 |
| Molecularweight | 393.08 g/mol |
| Casnumber | 861324-36-5 |
| Appearance | Light yellow to brown solid |
| Solubility | Slightly soluble in organic solvents |
| Purity | Typically ≥98% |
| Storageconditions | Store at 2-8°C, in a tightly closed container |
| Synonyms | 2,4-Dibromo-6-((4-hydroxycyclohexylimino)methyl)phenol |
| Smiles | C1CCC(CC1)N=C(C2=CC(=C(C(=C2Br)O)Br)) |
As an accredited 2,4-Dibromo-6-((4-Hydroxy-Cyclohexylimino)-Methyl)-Phenol factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Amber glass bottle containing 10 grams of 2,4-Dibromo-6-((4-Hydroxy-Cyclohexylimino)-Methyl)-Phenol, securely sealed with a screw cap. |
| Shipping | **Shipping Description:** 2,4-Dibromo-6-((4-Hydroxy-cyclohexylimino)-methyl)-phenol is shipped in tightly sealed, chemical-resistant containers, clearly labeled with hazard information. It is packed according to safety regulations for hazardous chemicals, protected from moisture, direct sunlight, and extreme temperatures, and transported under conditions compliant with local and international chemical shipping standards. |
| Storage | 2,4-Dibromo-6-((4-Hydroxy-cyclohexylimino)-methyl)-phenol should be stored in a tightly sealed container, protected from light and moisture. Keep at room temperature, ideally between 2-8°C, in a well-ventilated area designated for chemicals. Avoid sources of heat, ignition, and incompatible substances such as strong bases or oxidizers. Proper labeling and access restrictions are recommended for safe handling and storage. |
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Over many years in our chemical laboratory, we have focused on developing molecules that drive results for specialty applications. Among these, 2,4-Dibromo-6-((4-Hydroxy-Cyclohexylimino)-Methyl)-Phenol stands out for its unique profile. This compound, with distinct bromination and a cyclohexylimino-methyl group serving a specialized function, was formulated to address challenges that standard phenolic derivatives do not solve in real-world processes.
We invested countless hours fine-tuning the manufacturing protocol of this compound to reach high levels of purity and consistency in every batch. In our experience, the introduction of the dibromo moiety not only changes the physiochemical profile—such as solubility and stability—but also allows for practical uses in fields where other phenolic compounds fall short.
In the synthesis process, careful attention is paid to the reaction sequence, including precise temperature control and reagent addition. A minor deviation in temperature at the bromination stage leads to byproduct formation, affecting the end use. We avoid shortcuts. Each lot is checked by HPLC and NMR to confirm that it matches the composition we promise.
Sourcing high-purity bromine and cyclohexylamine was a major focus for us. The impurity profile of raw materials directly shows up in the final results. By maintaining direct relationships with our two main suppliers, our material passes all purity checks without surprises. This may sound obvious, but we have seen failed syntheses at other plants in our region, and these usually trace back to low-quality input chemicals.
Beyond synthesis, proper storage conditions matter. The slight hygroscopic nature of the intermediate requires low humidity and an inert atmosphere during sampling and packing. Our staff developed sealed transfer lines and moisture indicators to guarantee storage does not compromise product quality. This technical detail makes the difference in maintaining batch-to-batch uniformity as measured by our QC team.
The majority of phenolic derivatives out in the market possess either a simple halogen substitution or an unsubstituted imine group. We see many traders selling monobromo-phenols or simple imino-methyl phenols, without blending these structures. By contrast, our molecule brings together the electron-donating effects of the hydroxy group and the electron-withdrawing effect of two bromines, while the cyclohexylimino-methyl attachment further modulates reactivity and interaction with target systems.
Having witnessed dozens of research groups compare our compound with variants lacking one or the other functional group, a difference in performance becomes obvious. For example, in antimicrobial screening and catalysis research, users share feedback about sharper activity profiles, especially where other phenols degrade or lose activity under stress.
Chemical stability also stands out. Compared to mono-brominated imino-phenol compounds, ours resists oxidative breakdown and preserves its integrity in long-term storage. Some researchers share that this property allows for more reliable scaling and predictable outcomes when developing new protocols.
Handling safety moves front and center in our production line. The addition of the cyclohexyl group tames volatility and odor during open transfer, a benefit workers appreciate on the shop floor. We have logged zero exposure complaints in the years since switching from earlier analogs.
Local university partners came to us seeking a molecule that combines resilience, selectivity, and manageable reactivity for both pilot-scale synthesis and analytical development. Many send us feedback on labwork, providing unexpected new uses and confirming longstanding applications.
In practice, this compound lands on research benches and in trial process lines tackling everything from custom resin modification to phenol-formaldehyde alternatives. We supply to teams exploring organic synthesis, where the dibromo and imino-cyclohexyl backbone directs reactivity in ways that pure phenols rarely offer.
From studying use cases, we see a majority of inquiries focus on its ability to serve as a functional group transfer agent, particularly under low-temperature and controlled-pH conditions. Researchers appreciate that the molecule can be switched between hydrophilic and hydrophobic substrates, accommodating process flexibility.
A key difference compared to standard dibromo-phenol is what happens during condensation and coupling reactions. Customers report higher yield consistency and better selectivity for target adducts. This enables more predictable material performance and, importantly, reduces purification burden downstream. In a manufacturing context, spend less time recapturing and purifying byproducts, saving both operator time and energy costs.
Bringing a compound like this from the bench to industrial scale means dealing with process variables well beyond theoretical chemistry. Our team modified the reactor hardware to accommodate the viscosity and heat dissipation needs during the imino-methylation step. We found out, the hard way, that traditional glass-lined reactors trap local heat pockets, which caused incomplete conversion. We switched to jacketed steel units with better thermal distribution, resulting in cleaner product and fewer side reactions.
As batches increased in size, quality control had to tighten. Early on, we used spot TLC checks, but as orders increased and more researchers depended on consistent output, we invested in automated in-line GC monitoring. This catches slight deviations before material leaves our plant.
Handling scale-up in countries with changing regulatory environments requires traceability and proactive environmental monitoring. Some markets introduced new effluent standards, putting pressure on process water management. Rather than waiting for fines, we revised our synthesis flow to use less water and improved halogen scavenger systems. Over the last cycle, water discharge bromine readings dropped by half—something we are proud of as both a producer and a member of the local community.
Customers working at the edge of material science set strict standards for impurity levels and reproducibility. Our answer was to blend additional wash stages into the process, removing unreacted bromine and byproducts. The extra step slowed production but raised overall acceptance rates and returned fewer questions from buyers.
We invested in third-party batch audits to build confidence with users who were new to our products. These audits not only safeguard against blind spots but also give us a chance to learn from external inspectors. Their feedback led us to adjust our drying protocol and eliminate minor solvent traces.
For shipments to export markets, proper labeling and documentation are non-negotiable. While some suppliers cut corners here, our crew insists on full COA and MSDS documentation with each shipment, covering everything from trace impurity profile to shelf life testing results. This transparency helps researchers avoid costly surprises during their own experiments.
One of the sticking points in the field can be the compound’s limited solubility in certain nonpolar solvents. Our experience taught us that co-solvent blending with small amounts of dimethylformamide or DMSO eases this transition, letting research partners adapt to their own test conditions. Several process engineers rely on our regular tech updates to optimize loading rates and workup sequences, reducing material loss.
Temperature stability during downstream processing matters. If temperature controls stray beyond recommended ranges, minor decomposition and discoloration can occur. While this may not matter for test samples, larger runs see drops in yield and downstream acceptability. Learning from these cases, we distribute a practical troubleshooting guide rather than a generic data sheet, outlining measures such as nitrogen blanketing or cooling options based on factory feedback.
Startup teams sometimes run into handling issues related to the fine powder format. Bridging and clumping during high-humidity periods used to create headaches in our packaging room. Our in-house adjustment—adding a short humidity-controlled enclosure during the bagging step—cut down caking and preserved the free-flowing nature that users expect.
We received growing requests from academic teams and process chemists looking to tweak the phenolic and imino-methyl ratio for niche purposes. While some competitors offer off-the-shelf analogs, our focus on customization enables tight control over the molecular fingerprint.
This collaborative spirit extended into our research partnerships. One group sought higher reactivity in electrophilic substitution reactions. We explored subtle changes to the bromination stage, delivering tailored lots. In another project, a partner needed a very narrow melting range for a high-precision catalytic study. Working together, we modified recrystallization conditions, hitting their target specs after several pilot runs.
Compared to mass-market phenolic intermediates, a compound like ours plays a clear role in supporting high-value, high-complexity projects. Manufacturers building advanced polymers, coatings, or specialty intermediates depend on molecular fine-tuning, not just generic feedstocks. As producers, we lean in on dialogue, adopting feedback from each use case into our improvement list.
From R&D to the production line, a key piece of the puzzle has been maintaining a learning feedback loop. Each production cycle brings fresh insights from both the shop floor and the laboratory. Data loggers in the warehouse flag seasonal storage risks. Field staff track downstream performance during customer manufacturing runs, noting unexpected behaviors or questions.
We act on this information by holding monthly review sessions, letting both chemists and operations staff share discoveries in real time. Some of the best tweaks to our cleaning or packaging protocols came from warehouse staff, not just lab scientists—an approach born of a culture where everyone feels invested in product quality.
Product recalls and returns remain virtually nil. Achieving this comes down to discipline at each stage, not easy answers. Our technical salespeople go out in the field, walking buyer labs post-shipment. This effort gives peace of mind to customers and hones our own procedure manuals with tips for handling, troubleshooting, and storage.
Given the technical niche of 2,4-Dibromo-6-((4-Hydroxy-Cyclohexylimino)-Methyl)-Phenol, clear communication stands as a top priority. Laboratory teams often need fast, specific feedback when process questions arise. Our chemists maintain direct lines to both exploratory researchers and process engineers, fielding questions about everything from batch homogeneity to reaction troubleshooting.
Publishing our own usage notes, handling suggestions, and results summaries helps prospective users avoid trial-and-error setbacks. We document lessons learned—not as marketing, but as a departmental archive of what works and what to watch for. This running log also makes onboarding smoother for new technicians, especially as universities and project teams rotate personnel.
Customer questions often spark new experiments. For example, one biotech team asked about compatibility with rare earth coordination complexes. Testing in our own lab revealed interaction pathways and helped us publish updated advice for this emerging application space. This kind of exchange builds long-term trust and cements our position as a partner, not just a supplier.
Maintaining quality requires more than documentation. Each time a deviation arises—be it unanticipated impurity, color variation, or logistical delay—our team investigates, not just logs the event. We started building case histories after responding to an early incident, where a slight color shift flagged a filtration issue. Since then, every lesson shows up in our internal tracker and shapes future practice.
Investment in skilled people pays off. Our plant chemists and operators are experts at spotting subtle shifts in batch behavior; this on-the-ground expertise often beats automated monitoring for catching the rare but critical failure mode. We back them up with training and incentives for proactive reporting.
As global supply chains tighten and demand soars for niche molecules, detailed knowledge and experience matter. Large-scale distributors lack this internal pipeline for feedback and rapid improvement. Our long-term relationships, regular site visits, and hands-on involvement keep us closely aligned with research needs and evolving technical challenges.
The pressure to improve environmental performance shapes much of our forward planning. Halogenated compounds, by nature, create regulatory and waste management demands. We stay in front of restrictions by minimizing process waste, recovering solvents, and piloting closed-loop systems where feasible. Scrutiny from external auditors motivates us to stay sharp, not complacent.
Sustainable packaging options, though slow to develop for fine chemicals, are on our radar. We are testing smaller footprint drums and working on lightweight, barrier-lined bags that cut down on secondary packaging requirements while still protecting sensitive contents.
Investing in plant upgrades and community reporting, we share annual environmental impact data with local authorities. Being a good neighbor matters as much as satisfying buyers, and we find that openness builds trust within and outside the industry.
As producers of 2,4-Dibromo-6-((4-Hydroxy-Cyclohexylimino)-Methyl)-Phenol, we rely on experience—not marketing gloss—to inform our day-to-day work. Real-time process control, close attention to raw materials, end-user feedback, and a culture of learning determine product quality and customer success. Each lot, each collaboration, and each challenge help us refine our craft. Staying connected to users, and never setting aside quality for speed, ensures our compound keeps serving those who rely on it for progress in science and industry.
