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HS Code |
925696 |
| Productname | 3-Chloro-4-(Trifluoromethoxy)Benzyl Bromide |
| Casnumber | 886762-44-1 |
| Molecularformula | C8H5BrClF3O |
| Molecularweight | 289.48 |
| Appearance | Colorless to pale yellow liquid |
| Purity | Typically ≥97% |
As an accredited 3-Chloro-4-(Trifluoromethoxy)Benzyl Bromide factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Amber glass bottle, 25 grams, with child-resistant cap, labeled with chemical name, formula, hazard warnings, and handling instructions. |
| Shipping | **Shipping Description:** 3-Chloro-4-(Trifluoromethoxy)Benzyl Bromide is shipped in sealed, chemically resistant containers, compliant with relevant hazardous material regulations (e.g., UN 3265, Class 8, Corrosive Liquid, Organic). It is transported with appropriate labeling and documentation, avoiding extreme temperatures, moisture, and physical damage. Protective measures are taken to prevent leaks or spills during transit. |
| Storage | Store **3-Chloro-4-(trifluoromethoxy)benzyl bromide** in a tightly closed container, in a cool, dry, and well-ventilated area away from incompatible substances such as strong oxidizers and bases. Protect from moisture and direct sunlight. Handle under an inert atmosphere if possible to minimize degradation. Use proper personal protective equipment, including gloves and eye protection, during handling and storage. |
Applications of 3-Chloro-4-(Trifluoromethoxy)Benzyl Bromide in Industrial ManufacturingOur direct production of 3-Chloro-4-(Trifluoromethoxy)Benzyl Bromide serves specialized sectors where high-performance intermediates are essential for quality and regulatory compliance. As a manufacturer, we supply this material for demanding syntheses in pharmaceutical, agrochemical, specialty chemical, and advanced material industries, each with precise technical and regulatory requirements. 1. Pharmaceutical Intermediate for Active Pharmaceutical Ingredient (API) SynthesisMany pharmaceutical companies utilize this compound as a halogenated aromatic building block for synthesizing pyrazole or pyridine derivatives, particularly targeting anti-inflammatory and central nervous system (CNS) APIs. Formulation chemists integrate it at specific synthetic stages to construct crucial molecular scaffolds, allowing precise fluorination and chlorination profiles required for patent-specific compounds. Industry compliance standards
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2. Agrochemical Intermediate for Herbicide and Fungicide DevelopmentManufacturers in the agrochemical sector introduce this halogenated benzyl bromide to build fluorinated aromatic cores for selective herbicide and fungicide active ingredients. The compound’s molecular structure provides improved metabolic stability and field performance in active molecules used for broadleaf and cereal crop protection. Industry compliance standards
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3. Specialty Chemical Intermediate in Liquid Crystal and Display Material ManufacturingCompanies producing advanced materials for electronic displays use this compound as an intermediate for the synthesis of highly fluorinated aromatic liquid crystals. Its unique substitution pattern enables tailored polarity and stability in proprietary display mixtures, benefiting panel manufacturers seeking high contrast and thermal endurance. Industry compliance standards
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4. Raw Material for Synthesis of Fluorinated Aromatic Monomers in Polymer ManufacturingProducers of specialty polymers integrate this benzyl bromide derivative during the synthesis of monomers for high-performance fluorinated polymers. Its presence ensures unique polar and hydrophobic behavior in final resins suited for coatings, membrane materials, and high-barrier films demanded by electronics and semiconductor industries. Industry compliance standards
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Starting work every morning at the plant, we understand that chemists rely on more than a name or a code to trust a reagent. Over the years, 3-Chloro-4-(Trifluoromethoxy)Benzyl Bromide has developed a reputation among professionals who work in pharmaceutical synthesis, agrochemical research, and material science. Our team dedicates attention to every batch, tweaking process parameters based on feedback from the chemists who depend on these materials daily. Genuine understanding of an intermediate’s quirks or the way trace moisture can cause complications shapes how we produce and test every lot.
3-Chloro-4-(Trifluoromethoxy)Benzyl Bromide combines chloro, trifluoromethoxy, and benzyl bromide functionalities. Few other benzyl bromides offer both electron-withdrawing and electron-donating effects in the same molecule, which matters in the hands of a skilled process chemist. This blend of features enhances reactivity with a wide range of nucleophiles, expanding its use in the construction of complex molecules. Our colleagues in the lab have witnessed improved selectivity in key alkylation reactions, especially those that suffer from competitive side chain reactions when more ordinary benzyl bromides are used.
Each drum or bottle leaving our warehouse carries our batch number, and technicians track quality from raw material receipts to sealed containers. We reference our product as model CTFB-Br001, ensuring full traceability. Customers running critical syntheses need not wonder what happened in a previous batch: we maintain nearly a decade of manufacturing logs, referencing not only dates but also reactor conditions, environmental fluctuations, and even subtle changes in gas purity that might affect final product integrity. This depth of oversight offers confidence beyond the chemical’s name or purity report.
Purity speaks for itself in the lab. We’ve seen how a point-five percent impurity level can ruin a week’s worth of work in scale-up testing. That’s why our analytical team uses both HPLC and GC-MS on every batch—not just for marketing, but because failures in earlier formulations taught us the value of early detection. Preventing trace hydrolysis and cross-contamination isn’t a theoretical challenge — it’s a practical necessity that comes from handling countless kilograms with our own gloved hands. Each time an operator flushes a reactor with dry nitrogen or checks for residual acidity, it isn’t just for compliance, but to guarantee reliability for the next chemist down the line.
A chemical’s story doesn’t end with the purity certificate. 3-Chloro-4-(Trifluoromethoxy)Benzyl Bromide flows cleanly, dissolves rapidly in common organic solvents, and shows reactivity patterns that help reaction formulations run more smoothly, according to the process teams who work with it every day. During large-scale alkylations, this compound avoids the byproducts that sometimes plague standard benzyl bromides and chlorides, often due to its particular electronic signature. As a result, operators handling hundreds of liters notice more manageable workups, smoother phase separations, and easier purification of the target compounds.
We work closely with project directors who design new drug candidates, and watch how 3-Chloro-4-(Trifluoromethoxy)Benzyl Bromide becomes key in the medicinal chemist’s toolkit. The combination of strong electron-withdrawing trifluoromethoxy and chloro groups on the aromatic ring often triggers unique biological activity, making these scaffolds attractive to drug discovery teams. Similarly, agrochemical developers appreciate the molecule’s reactivity and manageability, reporting minor side reactions and reliable conversion rates. From our plant, this translates to high demand for stable, reproducible material, with a narrow and well-controlled specification window.
Not every benzyl bromide performs the same. Traditional unsubstituted benzyl bromide reacts quickly but provides little opportunity for fine-tuning downstream product properties. Add a simple chloro group, and metabolic stability might increase, but the reactivity profile remains close to the parent compound. The triple influence of chloro and trifluoromethoxy substituents on a benzene ring, together with the bromide leaving group, sets this product apart—not just in theory, but in repeated, measurable results on kilo- and multi-kilo reaction scales. Colleagues have documented enhanced selectivity and reduced formation of difficult byproducts, which can save days of troubleshooting and purification.
Chemists who use this material for multi-step syntheses provide feedback that keeps us evolving. Early in our production history, several research partners flagged inconsistency in solubility profiles, traced back to variation in trace moisture and crystal form. In response, our shift teams implemented modified drying steps and adjusted storage protocols, moving away from simple silica desiccators to controlled-atmosphere cabinets, based on direct experience with batch failures. Time and again, partnership with end-users in the field has shaped our manufacturing decisions, and we regularly review customer field reports in quarterly meetings to plan new process improvements.
Any laboratory operating under cGMP or ISO quality guidelines faces complex paperwork and audit requirements; this is familiar ground for our QA teams. We do not simply run a series of checkboxes—each test, each log, every sample retained on the shelf, arises from real-world recalls and audits that once cost us valuable relationships. Our team now invites clients to inspect batch histories and supporting analytical data. By capturing every calibration trace, instrument maintenance log, and micro-extraction result, we give downstream users the kind of regulatory assurance that feels familiar to anyone who has faced a “for cause” audit. The comfort is not only in the numbers but in the faces of the operators who produced it.
Handling aromatic bromides with halogen substitution requires respect for chemical safety and environmental stewardship. Our operators train on closed-transfer techniques, not only to minimize exposure, but also to reduce volatile organic emissions in real, measurable ways. Despite regulatory mandates, our commitment to limited waste generation came first out of self-preservation—few things are as memorable as an unplanned pressure spike or a near-miss with a faulty seal. Now, with improved containment and solvent recovery, our facility controls emissions to levels below published local guidelines. We update our protocols regularly as more research emerges on the downstream effects of fluoroaromatic intermediates, learning from industry partners as well as internal incident reviews.
Long-term customers often highlight one recurring concern: stability in storage. Over the last several years, our team noted minor degradation under humid or high-temperature conditions, and responded by shifting to amber glass and inert atmosphere packaging. Any supplier can promise stability, but we have seen firsthand how a poorly sealed container in a non-climate-controlled warehouse turns reagent into scrap. In one case, thousands of dollars’ worth of material had to be drained and reprocessed due to avoidable hydrolysis. From such lessons comes real change; now, every package leaving our dock includes detailed storage guidance informed by genuine field experience with shipping and warehouse mishaps.
The route to an active pharmaceutical ingredient or a novel agrochemical often demands high-yielding, selective steps. Our technical service chemists work with development teams running pilot plants and kilo labs. They find that 3-Chloro-4-(Trifluoromethoxy)Benzyl Bromide acts both as a benzylating agent and in some cases introduces unique oxidative stability to intermediates. The desired balance between reactivity and selectivity often emerges only after several failed screens with plainer molecules. Narrowing in on a trusted supplier becomes vital as synthesis routes move toward regulatory approval and scale-up, when any deviation from past lots triggers costly revalidation and risk mitigations.
Beyond shipping product in drums and bottles, our R&D team sits in phone conferences and online meetings with development chemists testing new reactions. Sometimes, this means sharing insights on reactivity trends or side reactions, sometimes sourcing new raw materials to control for specific trace impurities that disturb a formulation. Feedback from these collaborations has nudged us toward tighter control over particle size, intermediate drying times, and packaging upgrades. Success for us means seeing a molecule successfully move from discovery to production, with our intermediate supporting that journey through every scale.
Other production sites may claim high yields or standard grade levels, but focus in practice falls upon operational habits. Each shift in our facility ends with a written hand-off that tracks not just procedural compliance but process deviations, unexpected reactor behavior, or unusual product appearance. Years ago, a minor incident—later traced to a miscalibrated temperature control—highlighted how easily small errors cascade into major losses. Today, real-time data logging and in-person operator oversight spot problems early, saving entire production campaigns from loss and our customers from receiving suboptimal intermediates. We stake our reputation on responding to genuine process data, less on sales promises and more on decades of batch experience.
Recent discussions about PFAS compounds and broader environmental scrutiny place chemicals such as trifluoromethoxy-substituted aromatics under a sharper lens. Our lab team started earlier than most to watch for downstream environmental signatures, running quarterly tests to check for persistent byproducts and degradation trends in local water systems. As more regulatory pressure builds on halogenated intermediates, we remain proactive with new containment strategies, solvent substitution studies, and customer-oriented safety documentation. Real knowledge of how these materials behave in pouring rain or ambient warehouse heat comes not from a textbook but from keeping records on every shipment, every spill, and every complaint.
A molecule seldom stays identical from concept to commercialization. The requests we field—alternate packing sizes, tighter specification limits, stability studies after exposure, even advice on obscure reaction failure modes—reveal the reality of working with advanced building blocks. Selling chemical intermediates is about more than purity or speed of delivery; we join our clients in development, sometimes troubleshooting synthetic bottlenecks late at night or sending sample vials by express courier for urgent lab studies. As a manufacturer, we view our product less as a commodity and more as an evolving solution—a continuous collaboration with those pushing research forward.
Markets rarely stay still. Demand for 3-Chloro-4-(Trifluoromethoxy)Benzyl Bromide has followed a pattern: surges from expanding pharmaceutical and crop protection research create supply crunches. We counter this volatility by maintaining raw material alliances and modular reactor setups that ramp up or scale down based on current need. During times of shortage, it’s tempting to cut corners, but years of loss from such moves have taught our team to focus on robustness over expediency. Realizing how one batch’s flaw can cost months of research downstream informs every investment in automation, process analytics, and even cross-training for each shift worker.
Behind every bottle and drum stand the people who make, test, pack, and ship these materials. The problems they solve—pump leaks, stray contamination risks, last-minute label changes—shape the difference between a good batch and an unreliable one. We invest in training because one sharp-eyed technician once caught a mislabeled container and saved a project down the stream. We ask clients to visit because seeing operators work inspires more confidence than any data sheet. It’s this human oversight that connects us directly to each chemist running experiments late into the night, and to every project hoping for a breakthrough.
Quality and purity remain at the core, but shipment delays, packaging mishaps, and miscommunications pose ongoing challenges. Prompt interventions, such as dedicated customer liaisons and open reporting on root-cause analysis, stemmed from tough lessons: late deliveries once forced reruns of high-value syntheses, incorrect packaging allowed moisture in sensitive zones, and off-spec batches ate into researcher timelines. Our process for addressing these issues combines tailored batch release with swift recall procedures if needed, alongside a policy rooted in transparency rather than excuses.
Every kilogram of 3-Chloro-4-(Trifluoromethoxy)Benzyl Bromide that leaves our hands carries more than just label claims. It represents ongoing investment in process understanding, operator vigilance, environmental responsibility, and a hard-earned ability to listen. Thanks to continual improvements and partnerships with hundreds of chemists, we’ve learned to solve problems before they become issues and to adapt when conditions shift. Whether for pharmaceutical breakthroughs or innovative materials, our team stands behind every package, every time.