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HS Code |
785414 |
| Chemical Name | m-Chlorobenzyl Cyanide |
| Synonyms | 3-Chlorobenzyl cyanide |
| Cas Number | 102-28-3 |
| Molecular Formula | C8H6ClN |
| Molecular Weight | 151.59 |
| Appearance | Colorless to pale yellow liquid |
| Odor | Irritating, pungent odor |
| Melting Point | −11 °C |
| Boiling Point | 240 °C |
| Density | 1.17 g/cm³ |
| Solubility In Water | Insoluble |
| Flash Point | 110 °C |
| Refractive Index | 1.561–1.563 |
| Vapor Pressure | 0.022 mm Hg (25 °C) |
| Un Number | 2811 |
As an accredited m-Chlorobenzyl Cyanide factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | A 500-gram amber glass bottle labeled "m-Chlorobenzyl Cyanide," featuring hazard warnings, chemical information, and a secure screw cap. |
| Shipping | m-Chlorobenzyl Cyanide should be shipped as a hazardous material, in compliance with relevant regulations (such as DOT, IATA, and IMDG). It must be securely packaged in tightly sealed containers, clearly labeled with hazard warnings, and protected from heat, moisture, and incompatible substances to prevent leaks or contamination during transit. |
| Storage | m-Chlorobenzyl Cyanide should be stored in a tightly sealed container, placed in a cool, dry, well-ventilated area away from direct sunlight and incompatible substances such as strong oxidizers, acids, and bases. The storage area should be secure, clearly labeled, and equipped to contain potential spills. Access should be restricted to trained personnel equipped with appropriate safety equipment. |
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Purity 98%: m-Chlorobenzyl Cyanide with 98% purity is used in pharmaceutical intermediate synthesis, where it ensures high yield and reduced impurities in final products. Melting Point 51°C: m-Chlorobenzyl Cyanide with a melting point of 51°C is used in organic reactions requiring controlled phase changes, where it facilitates precise compound formation. Molecular Weight 151.59 g/mol: m-Chlorobenzyl Cyanide of molecular weight 151.59 g/mol is used in heterocyclic compound development, where it enables accurate stoichiometric calculations for reaction design. Stability Temperature 40°C: m-Chlorobenzyl Cyanide with a stability temperature of 40°C is used in chemical storage solutions, where it maintains consistent performance during prolonged handling. Particle Size <50 µm: m-Chlorobenzyl Cyanide with particle size below 50 micrometers is used in resin formulation processes, where it ensures homogeneous dispersion and optimized reactivity. Assay 99%: m-Chlorobenzyl Cyanide with an assay of 99% is used in fine chemical manufacturing, where it delivers enhanced batch reproducibility and product reliability. Refractive Index 1.552: m-Chlorobenzyl Cyanide with a refractive index of 1.552 is used in analytical reference standards, where it provides accurate optical measurements during compound identification. |
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Growing up in a family of chemists, I’ve always seen how each compound carves out its own niche. The world of specialized chemicals is often a closed book, tied up in technical terminology or shut behind lab doors. Today, let’s shine a light on m-Chlorobenzyl Cyanide. From my experience on both sides of industry and research, it’s easy to overlook compounds like this until a job or process absolutely demands high purity, consistency, and a reliable source.
m-Chlorobenzyl Cyanide isn’t some mystery sauce, but it does have a specific personality. Its structure—a benzyl cyanide ring with a chlorine atom at the meta position—gives it certain strengths. You might be looking at cas #873-32-5 or talking about a white to off-white crystalline powder, depending on the context. The key fact: its chemical design shapes how it behaves in reactions and why certain industries rely on it.
In my early days as a chemical process engineer, the first thing drilled into us was the importance of choosing the right starting materials. It’s not always about what works, but what works best for your exact need. m-Chlorobenzyl Cyanide sits at a crossroads in the synthesis of pharmaceuticals, specialty dyes, and fragrance chemicals. Its structural layout makes it an important intermediate—good for building complex molecules. There’s a reason you see it pop up in lab notebooks and process flows whenever selective introduction of nitrile groups or aromatic substitutions come up.
One of the biggest lessons I learned on the production floor: be wary of shortcuts. Compounds with questionable quality or imprecise specifications have a way of haunting your final product. With m-Chlorobenzyl Cyanide, the right model and spec will mention purity levels above 98 percent, controlled moisture content, and limited byproducts. Impurities can derail batch yields and mess with downstream reactions. Years working in both multinational chemical companies and small pilot plants taught me to always double-check certificates of analysis. If a supplier doesn’t show data on contaminant profiles—think 2-chlorobenzyl cyanide, unreacted toluene, or solvent residues—move on.
I still remember an incident where a shipment with questionable clarity ended up shutting down production for days. Lessons like that stick with you. That’s why professionals in pharma synthesis often go for high-spec m-Chlorobenzyl Cyanide that passes rigorous chromatography analysis and independent verification.
Ask a veteran formulator why m-Chlorobenzyl Cyanide and not a similar alternative, and you’ll get an earful. Each cyanide-bearing aromatic compound reacts a bit differently. The placement of that chlorine group—right at the meta position—turns m-Chlorobenzyl Cyanide into a different beast than its ortho or para cousins. In practice, that changes reactivity profiles, boiling points, solubility, and even selectivity in multi-step syntheses.
Maybe you’ve heard of para-chlorobenzyl cyanide and wondered if they’re interchangeable. From a cost or process safety perspective, they aren’t. Each has different implications for kinetics and control. Years ago I helped troubleshoot a formulation designed around a substituted benzyl cyanide. The specs got confused, and the result was a batch that wouldn’t crystallize properly after reduction. Turned out to be the wrong isomer. Details matter when you’re banking on reproducibility, especially at scale.
Producing m-Chlorobenzyl Cyanide isn’t just a matter of mixing ingredients. Safe, repeatable manufacture demands seasoned oversight. Working in facilities where cyanide processes run shifts daily, safety protocols become second nature. Fume hoods, scrubbers, continuous real-time analytics—these aren’t optional. The compound doesn’t tolerate improvisation, either. One spill or exposure can mean serious risks, and anyone sourcing or using it must appreciate the respect this chemistry commands.
I’ve seen how the chemical’s intermediate nature lends itself to both manual and automated dosing setups. Since it melts just above room temperature, users can manage it relatively easily compared to volatile liquids or unstable oils. Still, even small mistakes in weighing or transfer can throw off product quality. In high-stakes environments—especially pharmaceutical intermediates—every step is carefully documented, and that starts with the assurance that each drum or bottle meets the published specification.
In my years teaching fine chemical synthesis, I noticed how students gravitated to brighter dyes or pharmaceutical actives, while the workhorses—like m-Chlorobenzyl Cyanide—barely drew mention. Yet look closer and you realize entire reaction trees depend on this single structure. Medicinal chemists lean on it for building blocks in antihistamines, anti-inflammatory drugs, and investigational compounds. Its chlorine atom helps direct specific pathways in aromatic substitutions, sure, but it also shields the molecule under certain reaction conditions.
The fragrance industry taps it for its ability to introduce unique notes into complex blends. In dye chemistry, selective reactivity allows precise pigment manipulation—hues you see in textiles or inks. Decades of trial-and-error have tuned process recipes so that the meta-chloro configuration pulls its weight in yield, purity, and color intensity. None of these impacts show up on a standard template, but anyone who’s lost a batch to the wrong intermediate knows just how fundamental the right building block becomes.
Let’s not gloss over the hurdles. m-Chlorobenzyl Cyanide doesn’t always play well with green chemistry initiatives. Traditional synthesis bridges benzyl chloride routes and cyanide reagents—areas that draw scrutiny for safety and waste management. Projects chasing cleaner production methods often focus here. I’ve seen promising starts with phase-transfer catalysis or better containment, but regulatory pressure keeps everyone on their toes.
Waste minimization comes into sharp focus during large-scale manufacturing. Chemical handling produces not just product, but side streams in need of careful treatment. My days consulting with process safety teams taught me never to underestimate the cost and complexity of washing, neutralizing, and disposing residues. For those of us responsible for environmental compliance, the safest bet is always to work with suppliers who don’t cut corners on waste handling or transparency. Reputable outfits invest heavily in stack monitoring, groundwater testing, and employee health.
In the field of specialty intermediates, choices abound. Some folks reach for o-chlorobenzyl cyanide to tweak reaction rates; others pick unsubstituted benzyl cyanide for less steric hindrance. Each has its place, but m-Chlorobenzyl Cyanide pulls ahead when researchers want a sweet spot between reactivity and selectivity. Over countless project retrospectives, I noticed teams that stick with tighter specifications enjoy fewer surprises down the line.
Switching between similar compounds brings real-world challenges—think solubility issues in pilot plant tanks, analytic headaches during QC, and regulatory reporting headaches. Even a single methyl or halogen group can move a candidate from “runs smooth” to “needs constant troubleshooting.” The chemical world rewards those who pay attention to detail, both on paper and at the bench.
Years ago, a partner lab in Europe learned hard lessons from intermittent supply disruptions. Even a shortfall or delay in a critical intermediate can cascade into missed contract deadlines and lost client trust. m-Chlorobenzyl Cyanide buyers tend to cluster with established suppliers—firms that have a track record spanning years, not fly-by-night newcomers. They seek out transparency in both sourcing and paperwork, screening for child labor, hazardous working conditions, or points of possible contamination.
Real trust grows from repeated success. I’ve seen supply relationships stretch over decades, built on quick resolution of hiccups, regular audits, and open lines of communication. Labs sourcing m-Chlorobenzyl Cyanide should always request updated analytical results. I personally learned to never ignore small inconsistencies—a shift in melting point, an out-of-spec IR spectrum. A shortcut up front turns into a headache in scale-up.
Everything about this product comes under the microscope as soon as it enters a regulatory-facing domain—think active pharmaceutical ingredient pathways or feedstock for agrochemicals. Compliance isn’t just about ticking boxes; it’s about ingraining a culture. From Good Manufacturing Practices to Responsible Care audits, standards evolve year after year. Over time, I came to see how facilities serious about quality rarely get tripped up by surprise compliance visits: preventive action, solid logs, and ongoing training guide every move.
The chemical’s position as a potential precursor means additional reporting obligations under certain regimes. Each shipment moves with detailed documentation. In my own work, I found that quality departments who stay a step ahead—regular update trainings, tighter inventory controls—face fewer delays and are more nimble during crisis. Small habits like spot-checking storage conditions add up to safer, more resilient operations.
Innovation never sits still. I remember years ago how little attention most gave to process improvements for classic compounds. Lately, more researchers have set their sights on greener synthesis methods—less waste, safer reagents, closed-loop recycling. Some focus on energy savings; others on alternative starting materials. The pressure isn’t just theoretical. End clients from big pharma to specialty dye houses now build sustainability metrics into every new project. Demand is steadily shifting toward producers who can show not just technical prowess, but also social and environmental responsibility.
Supply chain transparency matters more every year. End users want to know their source, trace every link in the chain, and measure environmental footprint. I’ve seen manufacturers pilot blockchain solutions for batch tracking—what once sounded like science fiction now keeps records immutable and accessible. Regulators, too, look for paper trails and proof of ethical production. Those who adapt early avoid the scramble that comes with sudden rule changes.
My own path through industry and academia taught me some hard truths about innovation in chemical manufacturing. Every step toward greener, safer, or more reliable m-Chlorobenzyl Cyanide comes from open collaboration. Process engineers, lab scientists, logistics managers—all bring unique insights into bottlenecks and missed risks.
One way forward involves strengthening open channels between producers and end-users. Regular feedback drives process tweaks: if a production batch faces repeated downstream challenges, root cause analysis can turn up insights. Responsive suppliers tune their protocols—whether that means more frequent impurity testing, better sealing and packaging, or improved documentation. Supply chain management isn’t a set-it-and-forget-it process.
Another lesson: invest in talent and training. Both production crews and shipping teams need the right tools and up-to-date safety drills. Teams that work under stress, or in high-turnover environments, become vulnerable to small slips—spills, mislabeling, incorrect weighing. The best safety record comes from teams that know the “why” behind every precaution. Real-world disasters rarely stem from malice, but from inattention or misunderstanding. Training and respect for process save money and lives.
For buyers, I always recommend site visits or audits. What looks neat on a PDF can mask real-world chaos. Walk the floor, ask tough questions, scrutinize inventory controls. Build relationships with more than one supplier to hedge risk; sudden shortages pulse through the fine chemical world every season. Learn the local regulatory framework inside out, and lean on local specialists when exporting or importing. Problems rarely erupt where you expect them.
People who use or source m-Chlorobenzyl Cyanide often hold quiet but meaningful responsibility. Their choices ripple through not just supply chains, but downstream products in healthcare, fine chemicals, dyes, and fragrances. Pursuing ever-better standards isn’t some abstract corporate goal, but a practical obligation to clients, employees, communities, and the environment. The weight of that responsibility fuels improvement across the board.
It’s easy to see chemicals only as formulas or specs on a page. With something like m-Chlorobenzyl Cyanide, the story runs deeper. Hard work, deep expertise, and consistent care underpin every shipment, every gram, every data sheet. When we focus on details, on people, and on lasting value instead of short-term profit, the ripple effects reach further than today’s project or bottom line. That mindset has always paid off in the long run.