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HS Code |
713811 |
| Chemical Name | 4-(2-Chloro-6-Fluorobenzyloxy)Benzaldehyde |
| Molecular Formula | C14H10ClFO2 |
| Molecular Weight | 264.68 g/mol |
| Cas Number | 862665-16-1 |
| Appearance | White to off-white solid |
| Solubility | Soluble in organic solvents such as DMSO and methanol |
| Purity | Typically >98% |
| Structural Formula | CC1=CC=CC(F)=C1OCC2=CC=C(C=O)C=C2 |
| Smiles | C1=CC=C(C=C1)OCC2=C(C=CC(=C2)Cl)F |
| Storage Temperature | 2-8°C |
| Hs Code | 29124900 |
As an accredited 4-(2-Chloro-6-Fluorobenzyloxy)Benzaldehyde factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Amber glass bottle containing 25 grams of 4-(2-Chloro-6-Fluorobenzyloxy)Benzaldehyde, securely sealed with tamper-evident cap and labeled. |
| Shipping | 4-(2-Chloro-6-Fluorobenzyloxy)Benzaldehyde is shipped in secure, sealed containers to ensure product integrity and prevent contamination. Packaging complies with chemical safety regulations, including clear labeling and hazard identification. It is transported under controlled conditions to minimize risk, with all relevant documentation provided to ensure safe and compliant delivery. |
| Storage | Store **4-(2-Chloro-6-Fluorobenzyloxy)benzaldehyde** in a tightly sealed container, in a cool, dry, and well-ventilated area, away from direct sunlight, heat sources, and incompatible materials such as strong oxidizers. Keep it at room temperature and protect from moisture. Use appropriate chemical storage labeling, and limit access to trained personnel. Avoid inhalation and contact with skin or eyes. |
Applications of 4-(2-Chloro-6-Fluorobenzyloxy)Benzaldehyde in Industrial ManufacturingAs a specialized manufacturer, we supply 4-(2-Chloro-6-Fluorobenzyloxy)benzaldehyde to diverse chemical sectors. Below, we detail actual downstream applications in distinct technical fields, outlining compliance standards, formulation ratios, integration points, and final product categories for professional industrial users. 1. Pharmaceutical Intermediate for Fluorinated Benzyl CompoundsThis compound serves as a key intermediate in the synthesis of active pharmaceutical ingredients (APIs) where the incorporation of both chloro- and fluoro-substituted benzyl moieties enhances molecular properties. Pharmaceutical processors use it in multi-step syntheses, converting it via reductive amination, Grignard reactions, and further benzylic modifications. Its performance in scale-up reactions supports consistent batch quality, meeting stringent impurity thresholds for API precursors in the cardiovascular and anti-inflammatory drug domains. Industry compliance standards
Typical usage ratio
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2. Building Block for Agrochemical SynthesisKey agrochemical manufacturers use this benzaldehyde derivative to introduce stable halogen functionalities crucial for improved environmental resistance in crop protection agents. During sulfonation, etherification, or acylation steps, it provides selective reactivity, resulting in enhanced systemic activity and photostability in modern herbicide and fungicide formulations. Raw material purity and controlled halogen content reduces by-product formation in high-throughput synthesis lines. Industry compliance standards
Typical usage ratio
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3. Fine Chemical Intermediate for Liquid Crystal Material SynthesisProducers of liquid crystal monomers use this compound for constructing mesogenic structures requiring precise polar and steric controls. Its unique chloro-fluoro-benzyl ether framework facilitates the synthesis of high-performance biphenyl and distyrylbenzene derivatives, pivotal in modern TFT-LCD and OLED screen materials. Integration occurs during Suzuki, Heck, or Ullmann coupling reactions, optimizing the alignment properties and heat resistance of display substrates. Batch consistency ensures tight control of isomer ratios and minimized discoloration in final monomers. Industry compliance standards
Typical usage ratio
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4. Starting Material for Advanced Polymer Modifier SynthesisSpecialty polymer manufacturers incorporate this compound as a functionalized aromatic aldehyde during production of performance-enhancing polymer modifiers. Its halogenated profile modulates polymer rigidity and thermal resistance via post-polymerization grafting or block copolymerization. During processing, the compound enhances compatibility in high-grade engineering resins, supports dispersion in plastic matrices, and secures permanent bonding with co-monomers to yield tailored physical properties for electronics and automotive applications. Industry compliance standards
Typical usage ratio
Downstream process integration
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With decades on the production line and hundreds of tons of specialty intermediates crafted each year, our team knows that consistent quality pays off. Among our latest proven products, 4-(2-Chloro-6-Fluorobenzyloxy)Benzaldehyde brings the focus straight to advanced chemical synthesis for custom pharmaceuticals and agrichemical development. In working hands-on with these molecules, we see every batch’s strengths and the subtle risks that can creep in from neglecting process controls. No matter how splendid a research lab’s data may read, scaling up to commercial volume and keeping that tight genetic fingerprint makes or breaks the value of any intermediate.
This compound—often called CFBB for brevity in our process notes—serves as an essential building block in active pharmaceutical ingredient synthesis. Whether you manage pilot batches or industrial installations, you notice how a single inconsistent shipment ruins more than just timelines. Over the years, we have continually refined our process to keep impurity levels extremely low. Most competitors hover near the regulatory thresholds; we stay significantly beneath, preventing side reactions and making downstream purification simpler. Our in-house GC and HPLC data from monthly production show batch-to-batch variance staying within tight ppm ranges—true chemical consistency that results from direct manufacturer attention.
Some see intermediates only as commodities on a spreadsheet. In our experience, everything matters—from solvent selection and temperature profiles down to real-time purity checks. CFBB itself hinges on sourcing a stable chlorinated fluorinated benzylic precursor. We purchase only directly from large, long-standing suppliers with full lot traceability. We maintain robust oversight from drum to reaction vessel. Our reactors, glass-lined and dedicated to halogenated synthesis, stay under rigorous clean-in-place cycles, minimizing cross-contamination, even across double shifts.
A common headache arises when traders or brokers source CFBB from workshops without strict controls, prompting dark side-product tints and impurity peaks no downstream chemist wants to waste solvent or sorbent removing. Our site operates on continuous inline monitoring, so any off-specification event halts the cycle until our analytical team reviews the run. Shipping goes out batch-sealed, with spectra and COA attached, long before we consider a bill of lading. End users have told us repeatedly that this reduces their own raw material rejection rate. For them, that saves both time and money, and for us, it builds trust through every reorder.
For medicinal chemistry partners, CFBB unlocks critical scaffolding in exploratory and scale-up projects. The benzaldehyde core presents strong reactivity with amines and other nucleophiles, giving chemists a reliable handle to connect diverse functional groups. Our direct customers often run iterative substitutions at the benzyloxy or aldehyde positions, leveraging the compound’s solid resistance to overreaction at adjacent sites brought by the fluorine and chlorine shielding. Agricultural science teams also pursue CFBB-based scaffolds for optimized herbicide or fungicide target interactions, where subtle steric and electronic tweaks make major differences in biological uptake.
We keep our product specification aligned with these needs, but we also see creative uses pop up. The stability in polar aprotic and moderate protic solvents allows CFBB to withstand prolonged Stir or heat cycles uncommon in less robust benzaldehyde derivatives. Some post-processing facilities extract critical downstream intermediates without repeated column work, thanks to our extra attention at the recrystallization stage. Since so much time is lost in fine-tuning purification, our direct QC investment ends up saving both us and our partners major resources in every campaign.
No two benzaldehydes behave alike in a high-yield lab. We field questions about product comparison nearly every week, especially as researchers weigh costs and synthetic feasibility. Lower-tier derivatives sometimes draw attention due to simple availability, but many miss the importance of tailored electronic effect and halogen placement. Without a strong ortho-fluoro group and benzyloxy connectivity, other structures often drift toward byproduct channels or require harsher conditions in anticipated transformations.
Through ongoing side-by-side purity analysis and reaction performance checks, we consistently note that CFBB, with its 2-chloro-6-fluoro setup, generates cleaner endpoints in both batch and continuous flow reactions. Take, for example, a prominent pharmaceutical partner running a bifunctional scaffold coupling. Switching from ordinary 4-benzyloxybenzaldehyde to our CFBB knocked off two full purification steps—simply by eliminating coeluting halogen-free isomers. The added cost of a specialized intermediate repaid itself in raw material savings and throughput gains.
Comparing further, generic substituted benzaldehydes sourced from broad-market chemical catalogs may not always meet the reactivity or selectivity standards. We frequently test lots in-house for unanticipated contaminants, including aromatic byproducts or traces of acids from incomplete quenching. CFBB produced in our shop stays crisp, pale, and near odorless, storing well when sealed against moisture and oxidation.
Our frontline workers prefer to handle CFBB over other halogenated aldehydes. The solid, crystalline nature of our product aids in accurate weighing and minimizes fine aerosol drift. We train all staff on correct glove, mask, and ventilation use, and store drums away from incompatible reagents. Unlike some more volatile analogs, our CFBB keeps a moderate vapor pressure, making for a safer atmosphere under fume hoods and diluting the risk of accidental exposure.
All chemical plants must take risk management to heart, and over time, we have refined our procedures based on real accident statistics and regular hazard audits. For instance, our safety department tracks every small incident—even if it’s just a minor spill or delayed shipment, using root-cause data to tweak our drum labeling or material handling protocols. It’s not just about compliance, but about building a true culture of respect for each compound we make.
Our process does not end with clean yields or economical synthesis. Each batch undergoes full structure confirmation with NMR, FTIR, and HPLC before clearing for shipment. Operators and lab staff work closely; onsite supervisors cross-check screens, and no batch gains a release until every method matches our strict standards. We've built dozens of reference chromatograms using both classical and cutting-edge columns, ensuring authenticity and uniformity for every client.
Through collaboration with our downstream partners, we adopted stricter thresholds for trace metals and volatile organic residues—recognizing that modern synthesis routes cannot tolerate even minor contamination. Several customers have noticed improved conversion rates and less fouling of their high-value catalysts, just by shifting to our higher-purity CFBB lots. Our records demonstrate over 98% on-spec acceptance over the past five years, and feedback loops between our QA and production teams speed up continuous improvement.
Supply chain shocks underline the need for local, reliable sources. Many end users learned hard lessons in recent years when cargo interruptions or political shifts hit offshore suppliers. Our ability to maintain buffer inventories and keep multiweek supply in our warehouse—with ready analytic support—meant shorter lead times and less uncertainty. Direct communication matters. When a partner faces a sudden ramp up or a regulatory shift, our phone lines connect them straight to a human, not a call center. Decisions and bottlenecks resolve faster.
Some peers increasingly cut corners—pressing for faster cycles or reduced raw input grades. We found in trials that doing so wrecks impurity control downstream. Instead, we keep an open book with our customers, sharing detailed batch analysis and production process records. By skipping the “just-in-time” pinch and focusing on continuity, we’ve reduced the chance of stock outs or untraceable variability. Ultimately, this gives formulators and process chemists confidence to plan runs without last-minute scrambling or unexpected reformulation.
For years, outside reviewers have asked how we adjust our production line to meet sustainability goals. Manufacturing specialty halogenated compounds creates unique challenges. We designed solvent-handling loops that condense and recycle over 80% of the reaction media used for our CFBB. Our team set up partitioned waste streams for halogenated residues, which go through on-site neutralization before regulated disposal. This reduces our environmental impact and avoids common mishaps from improper storage or external dumping.
We reduced water and energy footprints by integrating heat exchangers and optimizing reaction temperatures. In a recent retrofit, the shift to continuous process minimized batch heating/cooling swings, bringing power use down by several percent per ton synthesized. All wastewater and vented gases pass through dedicated scrubber systems, and monthly audits by third-party inspectors confirm continued compliance.
As regulatory frameworks evolve, we reformulate schedules and update documentation—keeping pace so customers pushing for green labels or low-residue endpoints know their supply chain is rock solid. We actively discuss planned improvements with clients and industry peers, recognizing that long-term success in building blocks like CFBB means finding ways to satisfy tomorrow’s expectations as well as today’s.
True manufacturing excellence springs from firsthand experience. Over the years, we’ve trained teams on site and abroad, showing practical problem solving in real plant settings. Our specialists log each incident, minor adjustment, and process tweak. Years of trial, error, and knowledge-building sharpened our decision-making not just in ideal lab trials, but while maintaining full capacity through equipment outages, raw material shortages, and policy shocks.
CFBB’s production is no static chemical recipe. Reactivity shifts as even micro-fluctuations in input quality, vessel condition, or operator attention pop up. We invest in continuous education and keep our process engineers on a strict rotation, so deeper knowledge stays sharp. Our teams run side experiments to anticipate new niche applications, whether that means tweaking solvent composition in response to new partners’ setup or tailoring a drying method for unique packaging needs.
No third-hand distributor or trading desk can replicate the intimate process knowledge built up across hundreds of production cycles. Our chemists understand not only the control panels, but the raw scents and textures a batch displays at each step. Rapid troubleshooting, trace analysis, or custom blending requests always come from this foundation of lived experience.
Working directly with end users provides daily opportunities to test our capabilities and flexibility. New drug discovery teams often run up against bottlenecks, whether in reactivity, lead time, or documentation. By maintaining open personal lines, we gain firsthand insight into what matters most. In one large agricultural innovation project, our technical expert visited a customer site, witnessed a recurring purification snag, and then piloted a process tweak that dropped their workup time nearly in half.
Sitting across from regulatory and formulation scientists, we discuss impurities openly, never hiding limits or prep steps used. Problems often surface at scale, so every batch gets reviewed for feedback, and if one lot veers, follow-up samples ship at our expense, not theirs. Direct partnership ensures everyone succeeds instead of fighting over paperwork or one-time deals.
Nearly half our upstream tweaks over the last few years came from observing what customers actually do with our material, not just what their labels or purchase orders claim. This feedback circle sustains quality and generates trust beyond any standard contract.
4-(2-Chloro-6-Fluorobenzyloxy)Benzaldehyde demonstrates the difference between standard ingredients and true building blocks engineered for performance and reliability. Every year, new synthesis routes and target molecules rely on foundation choices made early in the supply chain. Our commitment to hands-on, consistent process control and open dialogue with end users keeps CFBB from becoming just another line-item intermediate.
We stake our reputation on every batch leaving our floor, standing ready to tackle not just the easy runs but also complex permutations and specialized demands. That’s the level of attention and pride that makes all the difference in real-world chemistry, and it drives us to keep pushing both process and product to new heights.