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HS Code |
765792 |
| Chemical Name | 4-Methoxybenzyl Cyanide |
| Cas Number | 1722-12-5 |
| Molecular Formula | C9H9NO |
| Molecular Weight | 147.18 g/mol |
| Appearance | Colorless to pale yellow liquid |
| Boiling Point | 142-144°C at 20 mmHg |
| Density | 1.065 g/cm³ |
| Solubility In Water | Insoluble |
| Smiles | COC1=CC=C(C=C1)CC#N |
As an accredited 4-Methoxybenzyl Cyanide factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 250g of 4-Methoxybenzyl Cyanide is supplied in a tightly sealed, amber glass bottle with clear hazard labeling and safety instructions. |
| Shipping | 4-Methoxybenzyl Cyanide is shipped in tightly sealed containers to prevent leakage and contamination. Transport is conducted in accordance with local, national, and international regulations for hazardous chemicals. The package must be clearly labeled, protected from light, heat, and moisture, and accompanied by safety documentation and Material Safety Data Sheets (MSDS). |
| Storage | 4-Methoxybenzyl cyanide should be stored in a tightly sealed container, in a cool, dry, well-ventilated area away from sources of ignition, strong oxidizing agents, and acids. Protect from moisture, heat, and direct sunlight. Store at room temperature or under refrigeration if specified. Properly label the container and keep it away from incompatible materials. Always follow institutional safety procedures. |
Applications of 4-Methoxybenzyl Cyanide in Industrial ManufacturingAs the direct manufacturer of 4-Methoxybenzyl Cyanide, we support industrial partners across several specialized chemical sectors. The following application scenarios detail practical integration points, regulatory prerequisites, dosage recommendations, and resulting finished goods, reflecting real-world manufacturing workflows for our clients worldwide. 1. Pharmaceutical Intermediate for Antihypertensive APIsMajor pharmaceutical producers incorporate this compound as a crucial intermediate during the multi-step synthesis of specific antihypertensive active pharmaceutical ingredients, especially for novel benzylamine derivatives. Process chemists use it to construct the key aromatic core via nucleophilic substitution, which is then converted through reduction, hydrolysis, and further functionalization steps. Up-to-date pharmacopeial compliance and detailed batch documentation practices are routine, since the purity and traceability of the intermediate directly impact API synthesis outcomes and regulatory submissions. Industry compliance standards
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2. Agrochemical Intermediate for Synthetic HerbicidesOur chemical participates as a benzyl cyanide building block in the synthesis of specialized herbicides. Downstream producers employ it for the formation of heterocyclic ring systems that target weed metabolic enzymes. Its reactivity enables reliable scale-up in batch and continuous flow production settings. Quality assurance teams routinely document compliance with agrochemical supply chain transparency and registration standards before product shipment to agrochemical formulators and blenders. Industry compliance standards
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3. Fine Fragrance & Aroma Ingredient PrecursorSpecialty aroma chemical manufacturers utilize this cyanide derivative for constructing musky and spicy odorant frameworks. Typical downstream syntheses include selective reduction and further derivatization to aldehydes or alcohols, which serve as ingredients in designer perfumery bases and high-grade fragrance oils. Our quality teams certify each lot for compliance with applicable safety, purity, and batch retention standards for use in finished consumer aromas and fragrances. Industry compliance standards
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4. Specialty Dye and Pigment ManufacturingDye manufacturers employ this aromatic cyanide for synthesizing methoxy-substituted colorant precursors, valued in high-performance specialty coatings and advanced textile applications. It forms part of nucleophilic aromatic substitution or condensation reactions to produce dye intermediates with improved solubility or lightfastness. Our material control and supply records align with quality audit trails required in pigment and dye industries operating under international standards. Industry compliance standards
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5. Custom Electronic Chemical Synthesis (LCD and OLED precursors)Producers in the electronic chemical sector depend on this cyanide derivative for designing functionalized aromatic intermediates required in advanced display material research. It enables the stepwise synthesis of molecules with tailored electron-donating and -withdrawing capacities for improved charge carrier mobility. Manufacturing occurs under cleanroom and electronics-grade protocols to minimize trace contamination, secure high-purity supply chains, and meet confidential customer formulation standards for next-generation panel technology. Industry compliance standards
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From years spent transforming raw aromatic materials into reliable synthons, we’ve learned the value of consistency and purity in specialty chemicals. As direct manufacturers, our production of 4-Methoxybenzyl Cyanide draws on repeated laboratory feedback and customer input across pharmaceutical, agrochemical, and fine chemical industries.
Our team picks each intermediate for scale-up methods not just because it “works,” but because it brings hidden advantages. A compound like 4-Methoxybenzyl Cyanide highlights this mindset. The molecular structure—methoxy on the para position of the benzene ring with a benzylic cyanomethyl group—is no accident. This specific setup enables targeted reactions: nucleophilic substitutions, alkylations, and reductive transformations all hinge on the stability and clean reactivity of this profile.
Our current production relies on a refined batch synthesis, tuned for trace impurity control. Each lot lands between 99% and 99.5% chemical purity as verified by HPLC, GC-MS, and NMR. This isn't only a certificate—real differences emerge in process yields, waste reduction, and downstream purification. We choose raw methoxybenzyl chloride based on residue profile and verify stage-by-stage conversion to cyanide via both TLC and quantitative NMR, not just general spot checks.
Room for error narrows in large-scale synthesis. Color, melting range, and solubility are each reviewed by bench chemists before shipment. By integrating spectrometric screening along with traditional melting point evaluations, we catch small lot-to-lot differences long before a compound touches our customer’s reactor.
We see 4-Methoxybenzyl Cyanide used repeatedly in two main domains: pharmaceuticals and advanced intermediates in dyes or agrochemicals. Medicinal chemists often leverage the cyanomethyl group as a flexible anchor; it supports further transformation into amines, aldehydes, or carboxylic acids. Recent antitumor and CNS-active scaffolds draw directly from the reactivity of the benzylic cyanide moiety, which offers selectivity in carbon-carbon bond formation that a simple benzyl or tolyl group cannot match.
Process chemists have explained how the methoxy group on the aromatic ring makes a decisive difference: it activates ortho and para positions for subsequent functionalization. In polysubstituted aromatic syntheses, having a methoxy handle often means a cleaner path to target via lithiation, reduction, or cross-coupling.
Agrochemical efforts see similar benefits. The cyanomethyl function has proven versatile in constructing new phenoxyacetic acid herbicides and seed-treatment candidates, where subtle changes in aromatic electron density determine biological activity. Our 4-Methoxybenzyl Cyanide streamlines the path toward these candidate molecules, reducing time spent purifying and isolating intermediates.
Plenty of chemists compare 4-Methoxybenzyl Cyanide to unsubstituted benzyl cyanide or variants featuring methyl, chloro, or nitro substituents. Through our plant’s history, we’ve taken many modification requests—substituent variation is one of the first levers people try when aiming for yield bump or new activity. The difference with a methoxy group lies in both electronic and solubility effects.
Our colleagues in process development note that many substituted benzyl cyanides suffer from by-product formation during lithium or Grignard reactions. The methoxy group minimizes these decomposition routes, and reaction mixtures consistently run cleaner as measured by spot TLC or LC-MS, making work-up simpler. Purification teams emphasize the gentle polarity introduced by the methoxy, which makes extraction and column chromatography more selective versus parent benzyl cyanide or 4-methyl analogue. This reduces lost product and helps maintain high recovery through the final work-up.
R&D teams working on unstable intermediates appreciate the thermal stability profile—4-Methoxybenzyl Cyanide displays resilience against both hydrolysis and uncontrolled oxidation under standard lab conditions. This is no small matter; a few degrees’ difference in decomposition onset temperature sometimes separates a “scale-up ready” intermediate from a curiosity stuck at bench scale.
We keep synthesis routes transparent for customers who show genuine process concerns. Key raw material origins are traceable—our supply chain includes multiple audits per year. Chemists on the floor rotate roles every few weeks between reaction, isolation, and QC, so everyone sees not just numbers on a report but the real, physical samples and spectral readouts.
Every shipment includes a history of the batch’s spectral validation, plus recent calibration results for the instruments involved. If a customer finds even minor haze or discoloration, we work with internal QC teams to debrief both root-cause and corrective action, including combing through batch logs and reviewing old raw material records.
We keep pilot reactors running parallel, enabling us to trial syntheses with new parameters for customers seeking minor tweaks on functional group placement or alternative solvent systems. The synergy between our pilot and full-plant scale lines ensures a smoother transition from tens of grams to tens of kilograms, streamlining custom requests without bottlenecking everyday production.
Our environmental investment shows both in plant infrastructure and in reagents. Reaction mother liquors and spent solvents undergo internal distillation and fractionation, which cuts hazardous waste volume. The majority of post-reaction solvents are recycled. All staff rotate through in-plant safety drills, and we cross-train in both emergency measures and responsible reagent handling.
Vent control goes beyond regulatory minimums. We recondense and scrub off-gases from the cyanation step, and regularly review air monitoring data to spot trends. Our team worked with local third-party auditors to map potential impacts of each synthesis stream, prioritizing secondary containment wherever significant risks appeared—especially when scaling up for bulk clients using the product as a building block for longer API syntheses.
We source major raw inputs only from suppliers meeting minimum labor and safety audit scores. No process runs to completion without at least dual chemist signoff for raw material QC and a post-reaction waste review. These practices build confidence not only for our own operation but for clients subject to rigorous international regulatory reviews.
Direct feedback from scale-up partners shapes our production cycles. The last few years brought a wave of requests for slightly higher or lower water content, dissolved oxide thresholds, and minimum allowed peroxide traces, all spurred by specialized catalysis and nucleophilic substitution processes.
A pharmaceutical formulator in Europe flagged a subtle isomeric impurity in a new lot—our team reran the profiling, adjusted the condensation step, and traced the cause to micro-variations in base strength from a newly sourced carbonate. That experience led us to tighten specs across future batches and requalify reagent sources, minimizing threats to both repeatability and regulatory compliance.
Production never stands still. Requests for greener solvents led us to pilot syntheses using both alternative polar aprotic—such as dimethyl carbonate—and bio-derived alcohols, reducing overall VOC output. Evaluations are ongoing, and feedback from customer labs using the greener lots will drive future baseline choices.
We occupy a unique space as a manufacturer without entanglement in trading or third-party warehousing. All raw input, synthesis, and packaging passes under the same supervisory team. This keeps us close not only to what is technically possible, but what is practical and repeatable at both current and next-generation scale.
Having our own analytical suite—HPLC, GC-MS, FTIR—on-site enables rapid revalidation after each process change. More than once, this quick turnaround caught specifications evolving away from process goals before they reached full scale, saving not just material but downstream time for customers whose livelihoods ride on consistent material quality.
We resist the temptation to over-complicate synthetic routes. A compound like 4-Methoxybenzyl Cyanide succeeds in part because it avoids unnecessary protecting group manipulations and multi-step workups common to more highly functionalized analogues. The end result is less opportunity for error, lower waste, and reliable pricing even as feedstock markets shift.
Throughout the industry, discussion of “specialty” and “performance” chemicals often carries more marketing than substance. We believe the true test comes not in certificates but under real world conditions: the subtle shift of yield in a three-component coupling, or the reliability of color retention in a demanding dye synthesis. Our focus remains on maximizing these tangible outcomes, not simply inflating product lists.
As regulatory frameworks globally stretch and toughen—especially for cyanide-handling steps—the margin for error narrows. Heavy-metal residues, trace benzaldehyde content, and solvent carryover all carry compliance implications. We address these with pre-emptive analytics, running freshly developed LC-MS protocols even before formal specification changes filter in from industry authorities or customer requests.
We keep up renewable solvents development, driven by both external regulations and internal reduction targets. Most compounds in the aromatic cyanide family run best in certain polar aprotic solvents that raise sustainability concerns; we’re actively exploring and piloting green alternatives while tracking compatibility with standard downstream transformations. Progress often advances in fits and starts—what works for a pilot batch might misbehave at kilogram scale, changing reaction exotherms or solubilizing impurities unexpectedly. Each iteration feeds back into both internal documentation and our customer guidance notes.
Process improvements don’t stop at chemistry. Packaging solutions evolve as well. After trialing several barrier film types for moisture control, we shifted to a multi-layered liner system tested for both transport vibration and temperature extremes. Customers noticed lower caking and improved ease of stainless steel transfer, allowing more streamlined input straight into automated feed systems. As bulk customers set up continuous or semi-continuous lines, reducing manual steps translates directly into fewer halt points and lower overall manning on the synthetic line.
We encourage partners planning varied syntheses—be it nucleophilic attack, reductive work-up, or oxidative cleavage—to run test lots with our material and share results. Each variation, positive or negative, sharpens our understanding of both theoretical underpinnings and industrial practicality. Such collaboration secures not only reproducibility batch-to-batch, but real peace of mind as manufacturing complexity increases and compliance scrutiny tightens.
We see ourselves not only as suppliers, but as long-term partners committed to the steady improvement of complex chemical syntheses. Production of 4-Methoxybenzyl Cyanide, guided by hands-on lab and plant experience, reflects our deep investment in reliable, scalable, and practical specialty chemicals.
Every choice—raw input grade, purification route, analytical protocol—takes into account the realities chemists face: not just during the synthesis, but through scale-up, regulatory inspection, and final product qualification. Our goal is to ensure that operators, R&D groups, and process teams have access to a consistent, repeatable intermediate—one pushed to its limits in terms of both performance and practical handling.
By maintaining direct lines of communication, open process transparency, and relentless focus on what really works in the plant, we aim to support tangible improvements in yield, safety, and process reliability for everyone who relies on our 4-Methoxybenzyl Cyanide.