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HS Code |
500800 |
| CAS_Number | 540-59-0 |
| Molecular_Formula | C3H3N |
| Molar_Mass | 53.06 g/mol |
| IUPAC_Name | acrylonitrile |
| Appearance | Colorless liquid |
| Boiling_Point | 77.3 °C |
| Melting_Point | -83 °C |
| Density | 0.806 g/cm³ |
| Solubility_in_Water | 7.35 g/100 mL (20 °C) |
| Flash_Point | 2 °C |
| Vapor_Pressure | 110 mmHg (25 °C) |
As an accredited Veratronitrile factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Veratronitrile is packaged in a 250g amber glass bottle with a secure screw cap and appropriate safety labeling for laboratory use. |
| Shipping | Veratronitrile should be shipped in tightly sealed containers, protected from light and moisture, and kept at a cool temperature. It must be clearly labeled as a hazardous chemical, transported according to local and international regulations, and handled by trained personnel using appropriate personal protective equipment to prevent exposure and environmental contamination. |
| Storage | **Veratronitrile** should be stored in a tightly sealed container, away from heat, sparks, or open flames. Keep it in a cool, dry, and well-ventilated area, preferably in a flammable chemicals storage cabinet. Protect it from direct sunlight and incompatible substances, such as strong oxidizers and acids. Always label containers clearly and follow all relevant safety and regulatory guidelines. |
Applications of Veratronitrile in Industrial ManufacturingVeratronitrile is a specialty chemical intermediate, valued for its unique nitrile functionality. Our integrated manufacturing supplies Veratronitrile to a range of sectors with precise compliance and process requirements. We ensure rigorous quality traceability and supply consistency for every downstream application listed below. 1. Agrochemical SynthesisManufacturers in the crop protection industry incorporate Veratronitrile as a building block during the synthesis of specific active ingredients in selective herbicides and insecticides. The compound’s nitrile group enables key stepwise transformations under controlled conditions. Compliance with agrochemical manufacturing regulations requires tight impurity control and batch validation. Dispersed addition of Veratronitrile in intermediate reaction steps ensures target conversion rates for downstream formulation in solid and liquid crop protection agents. Industry compliance standards
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2. Pharmaceutical API IntermediateIn pharmaceutical manufacturing, Veratronitrile serves as a precursor for various active pharmaceutical ingredient (API) syntheses, especially where nitrile moieties are introduced onto heterocyclic cores. API production mandates trace-level impurity testing and route-specific validation. Controlled input ratios and reaction times support high-yield formation of target precursors, with Veratronitrile typically entering amidation or reductive amination stages after initial condensation. Our facilities supply cGMP-grade material for these regulated processes. Industry compliance standards
Typical usage ratio
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3. Polymer Additive ProductionIn specialty polymer manufacturing, Veratronitrile is utilized as a functional additive or as a monomer in the production of high-performance engineering plastics. It enhances polymer matrix properties such as thermal resistance and chemical inertness. Rigorous documentation of additive proportions and proof of compliance with worldwide polymer processing standards are essential. The material integrates at the compounding or pre-polymerization phase, often dissolved in reactive solvents. Selection of usage ratio supports required mechanical or chemical stability in the final resin. Industry compliance standards
Typical usage ratio
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Final product types
4. Dye and Pigment Intermediate ManufacturingColorant producers use Veratronitrile for stepwise synthesis of high-fastness organic dyes and specialty pigments. The nitrile group participates in coupling reactions, providing backbone rigidity and unique chromophoric features. Regulatory conformance is required for product traceability and environmental safety, especially in export applications. Precise dosing levels follow formula and spectral property targets. Synthesis steps usually introduce Veratronitrile during condensation reactions with aromatic amines or aldehydes, under controlled temperature and pH. Industry compliance standards
Typical usage ratio
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Final product types
5. Fine Chemicals & Specialty SynthesisProducers of specialty chemical products employ Veratronitrile for targeted synthesis of intermediates used in flavors, fragrances, and electronic chemicals. Regulatory guidelines dictate purity and traceability, particularly for export-controlled goods. The material integrates as a nucleophile or coupling partner at junction points of complex multi-step syntheses, where nitrile reactivity streamlines subsequent modifications. Laboratory and pilot-scale data guide input-level standardization for commercial batches. Industry compliance standards
Typical usage ratio
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Veratronitrile stands as a product born directly from our hands-on manufacturing processes, our years of daily interactions with raw materials, and our dedication to product purity. Through every batch, our operators keep a sharp eye on consistency and purity—not just because standards ask us to, but because the downstream impact on users depends on it. Our line turns out Veratronitrile of model VT-98. Each lot passes through our in-line spectroscopic monitoring as well as targeted analytical checks for trace impurities and moisture content, not just a routine but a matter of maintaining real-world reliability for customers who face process hiccups if shortcuts slip in.
Manufacturers like us face continual scrutiny over the quality and reproducibility of the chemical intermediates we put out. Veratronitrile, as a specialty nitrile, features a chemical backbone that positions it for specialized applications, with the VT-98 model named for its purity threshold—an approach we arrived at after years of fielding customer requests for both processability and minimal byproduct generation in sensitive downstream syntheses. Our output hits a minimum purity of 98%, with water content consistently held below 0.1%. Both numbers stem from years of process optimization—removing trace oxygenates and byproducts in multi-step distillation, not as an afterthought but because our earliest pharmaceutical partners told us about yield variance caused by subtle impurities.
On the factory side, technical specifications sound sterile on paper but translate directly to how Veratronitrile performs in a user’s process vessel. The VT-98 model flows with a typical density of 0.92 g/cm³, and our process tracking gives customers a typical boiling range in the narrow band they expect. Years ago, a customer flagged an upturn in start-up residue, and our investigation traced it to a subtle contamination from a valve seat material—prompting both material upgrades and revised cleaning protocols that now carry through every unit exit check. Details like this never appear in data sheets, but they shape a chemical’s reputation batch after batch.
Many buyers face a landscape where “nitrile” lines up as a commodity, but we operate in the details that define batches and brands. Our team has handled acrylonitrile, butyronitrile, and a crowd of other homologous nitriles. We’ve seen firsthand how Veratronitrile sets itself apart in its volatility, reactivity, and its fate as a precursor in fine chemical synthesis or in robust polymerization settings. In daily practice, minor impurities carry forward—so Veratronitrile’s low-residuals save headaches for chemists aiming for high-yield transformations. Many competitors tap older column technology or skip advanced sampling; we pour investments into our glass-lined batch reactors and keep up with regular catalyst checks, knowing these steps punch above their weight in quality outcomes.
Our own lab teams compare Veratronitrile’s solvent and intermediate potential against isomeric or chain-length variants. In reactors, Veratronitrile offers a modest vapor pressure, so the handling requirements find a practical middle ground: safe for closed handling in production while avoiding costly heavy engineering that extreme ends of the nitrile family dictate. Some customers have tried switching to simpler alternatives, only to face problems with side-product formation or workup headaches—a lesson learned that brings many of them back to us with appreciation for how Veratronitrile keeps their process stable.
In the real world, usage of Veratronitrile falls broadly into two main camps: as a raw material for downstream chemical syntheses—especially pharma intermediates, agrochemical actives, or high-performance material monomers. Our product often finds its way into the synthesis of specialty amines, heterocycles, and advanced intermediates. Years ago, a partner scaling up for a new pharmaceutical route flagged that pH drift during workup always came down to minor oxidizable contaminants in their nitrile source. We mapped their process in our own pilot plant and tuned our process integration with more air exclusion, which dropped their process corrections by half. Such work taught us that well-produced Veratronitrile cuts real-world costs beyond headline price per kilo.
We also serve material science clients—teams tasked with designing new polymers or advanced coatings. During one project, a feedback loop between our R&D and the customer’s polymerization team led us to shave off ppm-level monomeric side streams that had been causing unwanted crosslinking in field trials. That adjustment wasn’t a revenue driver on paper, but it cemented us as the preferred supplier for their next phase. These examples show how Veratronitrile usage separates itself from simpler nitriles: kind to sensitive reactions, predictable in even large-scale deployments, and open to feedback-based product improvement.
Every industry shift, regulation change, or new process trend lands on our desks as well. Our production team listens when environmental health and safety guidelines recalibrate acceptable exposure limits and residue thresholds. Each time restrictions on residual solvents or process emissions tighten, we know our Veratronitrile has already gotten through customer audits thanks to plantside diligence. No laboratory test replaces clean production lines and disciplined documentation—both now embedded in our production culture.
Our facility evolved out of small-scale batch runs where each drum was a deliberate piece of work—marking, testing, and logging every lot. Over decades, scaling up to continuous operation taught us not to chase maximum volume at the expense of batch-to-batch reliability. Each heating profile, each scrubber monitoring point, reflects lessons from batches where things almost went off-spec but didn’t, thanks to in-shift attention from operators whose names appear on the reports. Compared to commodity nitrile producers who blend to a price point, we focus on predictability; customers in regulated markets need to show their own auditors not only what’s in the drum today but what was in the prior year’s shipments. We back that trust with a retention sample protocol and real batch genealogy, not just paper procedures.
Process chemistry throws curveballs. Some customers adjust processes or tighten impurity specs each year, and we’re asked how quickly our production can respond. In most cases, we configure our purification trains downstream of synthesis, taking on extra distillation or in-line filtration as needed. These upgrades don’t come from a marketing playbook—they’re ground-level answers to real requests. For example, several large customers in fine chemicals demanded runs with even lower halide contaminants after new market export requirements; our team tool up, ran new pilot campaigns, then backed the changes with both in-house analytics and third-party verification. Results showed Veratronitrile VT-98 batches hitting lower background readings than any prior campaign, giving our clients the confidence to clear new markets without risk.
We rarely see a one-size-fits-all need, and customers push us in diverse directions. Whether the end use is a new agricultural active, a bright pigment precursor, or a battery component, our experience lets us anticipate what minor impurity profiles might matter—not just which numbers check a regulatory box, but which ones reliably trip up a synthetic route at tonne scale. As producers, we walk the line between volume and value, focusing on how our Veratronitrile brings more to the table for people running real processes under the eyes of regulators and customers alike.
Few topics earn more practical attention on our line than safe handling and reliable risk management. We have spent countless hours addressing risk assessments around nitrile offgassing, containment, and cross-exposure. Our own shipments anchor themselves in tested, robust packaging with batch-specific labels, so logistics teams and shop floor users know what to expect, and can quickly match drums to paperwork. We don’t just outsource this; facility managers remember when improper drum choices in the mid-2000s caused container weakening during a hot summer—a lesson we paid for by tightening our own packaging design controls.
Our staff’s training and the physical handling environment impact every user interaction. Open communication keeps near-miss learnings front-of-mind—years ago, a vapor monitor flagged a spike during transfer. Immediate response limited exposure, but follow-up root cause analysis led us to invest in improved local scrubbing technology and standardized nozzle attachments, sparing customers from handling the downstream headaches that an incident like that can trigger. Every improvement traces straight back to a moment of problem-solving, and often beats regulatory adoption by months or years.
User feedback continues to drive our improvements too. Some customers run high-throughput lines and voiced concerns about delivery consistency, residue build-up, or drum reactivity. We started a quarterly process review, inviting key users to audit our plant operations—unfiltered and hands-on. Where they identified edge-case performance issues, we adapted not by updating marketing materials, but by making shop-floor tweaks. The cumulative effect is a product that meets the standards of experienced users, not just newcomers.
Our sector faces constant questions about environmental footprints, legacy chemical handling, and future-proofing operations. At our facility, real sustainability tracks alongside Veratronitrile quality. Our internal program targets waste minimization, closed-loop water recycling, and atmospheric release reduction. We subscribe to best-practice solvent capture technology; not because compliance is a box to tick, but because cost savings from reduced losses match environmental responsibility—the sort of wins that resonate with experienced plant managers trying to explain investments to their boards.
We measure and log emissions for every Veratronitrile batch—a procedure some in the industry skip, counting on end-of-line controls instead. Our operations team runs regular audits, adjusting scrubbing and vent systems in response to in-field monitoring data. Feedback from downstream customers about residual odors or trace atmospheric releases pushed us to reinvest in column toppers and refrigerant upgrades, which now keep release rates at a fraction of regulatory minimums. These aren’t marketing lines; each change reflects actual site investment and years of operational improvements.
Waste minimization isn’t just a slogan. By valorizing side fractions and scaling solvent recovery, our team slashed disposal volumes. One recurring process—using atmospheric stripping followed by multi-pass condensation on Veratronitrile fractions—yielded a measurable drop in monthly waste output. Such investments paid back faster than expected, in both chemical cost and environmental metrics. Partners who work with us take confidence in knowing we put real resources into making Veratronitrile both safe and cleaner than much of the market.
Chemistry markets never hold still. As new end uses and stricter regulatory frameworks develop, our production lines adapt. A spike in demand for high-purity intermediates tied to new pharmaceuticals or electronics always brings new process wrinkles. We have stayed responsive, adjusting reactor feed rates and product storage systems to keep pace with fluctuations. Experienced buyers understand the security of supply and lot-to-lot consistency matter more than just price swings. We support this reliability not by chasing the cheapest input every season, but by holding contract positions for key upstream reagents—sometimes at a temporary margin hit—to guarantee that our downstream Veratronitrile batches don’t slip outside spec.
We’ve watched customer expectations climb, both in the chemical composition and the traceability record behind each kilogram. Our systems support long-range batch documentation, full audit trails, and year-to-year lot consistency. Not every supplier invests here—the paperwork’s costly, and the short-term payback is never obvious. Our view, rooted in customer conversations and regulator audits, is straightforward: documented quality builds trust. Customers return not to the loudest vendor, but to the one whose product history matches their risk profile every audit cycle.
Emerging usage for Veratronitrile in energy or electronics continues to shape our R&D work. New electrode materials, advanced polymers, and biorenewable monomers call for continuous product tuning. Our approach keeps a dedicated development line for new Veratronitrile modifications, piloted directly in-house before customer rollout. Regular dialog with innovators in the field tells us what trace elements or oxidation states matter most—those become the focus of our next analytical upgrades, integrated long before anyone else markets “new and improved” versions.
On the ground, chemical manufacturing offers no shortcuts. By producing Veratronitrile ourselves, we hold the levers for every variable—raw material source, process temperature, distillation rate, purification sequence, and storage conditions. The ability to tweak a parameter based on yesterday’s analytical report, not next quarter’s, sets manufacturers like us apart from the resellers whose control stops at the buy button. Customers who come to us with tough requests—lowering a minor impurity by 50%, shifting the packaging spec, adapting for overseas regulations—find straight talk and practical timelines, shaped by the realities of our shop floor and the practical skills of our operations team.
Over the years, our experience built a product reputation that meets the demands of research labs, scale-up plants, and long-term commercial operations. Feedback comes back through every channel—not just purchase orders, but service calls, troubleshooting requests, and on-site visits. We value these touchpoints; they reinforce the genuine link between our process discipline and the reliability of every shipment. This is more than a transaction—it’s a cycle of continual improvement shaped by actual performance, not just statistics. Each drum of Veratronitrile carries the legacy of lessons learned, innovations tried, and direct accountability from a team that takes personal pride in the outcome.
End users face meaningful risks by trusting chemicals with ambiguous history or unclear provenance. Our experience as a direct manufacturer gives every customer real insight into product origin, analytical results, and operational history. We understand why a drum’s actual age, storage record, and fill data matter. Customers in pharmaceuticals, fine chemicals, and advanced materials routinely share stories about costly problems linked to inconsistencies or undocumented impurities. Our approach—open info, real documentation, technical support on demand—builds not just a supplier relationship but a genuine partnership.
We don’t pretend every batch is flawless, but our commitment to direct accountability sets us apart. If a customer flags a performance issue, our teams can pull samples, re-examine analytical records, and trace every input back to the original shipment. We don’t bounce tough questions off to a distant supplier; our chemists, process engineers, and logistics leads deliver straight answers and practical fixes. That approach matches the real-world rigor our users demand, and it strengthens every batch we send out the door.
Choosing Veratronitrile from us means working with a supplier who lives daily with the product’s performance—from raw material tank to customer vessel. This direct connection means rapid troubleshooting, ongoing improvement, and the kind of partnership that pushes both our plant and your process toward ever-greater performance. Years of experience, anchored in the habits of critical documentation, hands-on engineering, and open feedback, keep us focused on building both reliable chemicals and lasting relationships.