|
HS Code |
945058 |
| Product Name | 2-Chloro-3-Cyano Pyridine |
| Cas Number | 874-86-2 |
| Molecular Formula | C6H3ClN2 |
| Molecular Weight | 138.56 |
| Appearance | Colorless to pale yellow liquid |
| Boiling Point | 246-247°C |
| Density | 1.25 g/cm³ |
| Purity | Typically >98% |
| Solubility | Soluble in organic solvents, slightly soluble in water |
| Flash Point | 109°C |
| Refractive Index | 1.570 - 1.574 |
| Smiles | C1=CC(=NC(=C1Cl)C#N) |
| Synonyms | 2-Chloronicotinonitrile |
As an accredited 2-Chloro-3-Cyano Pyridine factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 2-Chloro-3-Cyano Pyridine, 100g, supplied in a sealed amber glass bottle with a tamper-evident cap and hazard labeling. |
| Container Loading (20′ FCL) | Container loading (20′ FCL) for 2-Chloro-3-Cyano Pyridine: Up to **14 metric tons**, packed in drums or IBCs, palletized for export. |
| Shipping | 2-Chloro-3-Cyano Pyridine is shipped in tightly sealed containers, protected from light and moisture. It should be handled as a hazardous chemical, with appropriate labeling and documentation. Transport must comply with local and international regulations for hazardous materials, ensuring safe and secure delivery to prevent leaks, spills, or exposure. |
| Storage | 2-Chloro-3-cyano pyridine should be stored in a tightly closed container in a cool, dry, and well-ventilated area, away from sources of ignition, heat, and incompatible materials like strong oxidizing agents. Protect from moisture and direct sunlight. Use appropriate chemical storage cabinets, and ensure all containers are clearly labeled. Store at room temperature and handle with suitable personal protective equipment. |
| Shelf Life | 2-Chloro-3-Cyano Pyridine typically has a shelf life of 2 years when stored in a cool, dry, and tightly sealed container. |
Competitive 2-Chloro-3-Cyano Pyridine prices that fit your budget—flexible terms and customized quotes for every order.
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Chemistry shapes the world in small but significant ways, and 2-Chloro-3-Cyano Pyridine stands out in that long chain of innovations. As a pyridine derivative, this product brings a fine balance of chlorine and cyano groups to the six-membered aromatic ring. It may look straightforward in structure, but its ability to help create specialty chemicals and pharmaceuticals makes it a quiet giant in chemical supply chains. With its Model 2603 often cited for purity and consistency, 2-Chloro-3-Cyano Pyridine features a chemical formula of C6H3ClN2. Chemists and manufacturers alike see real value in this material. Whether for large-scale manufacturing or research, its impact builds out well beyond the beaker.
Most batches of 2-Chloro-3-Cyano Pyridine meet purity standards exceeding 98%, recognizable in the clear, pale-yellow appearance of the compound. At room temperature, it shows up as a crystalline solid. In production lines or R&D settings, small changes in purity can make big differences, especially when high-value end-products need minimal impurities. Flashpoint and solubility data figure heavily into safe handling. Reliable analysis certifies this product as stable at ambient conditions, though proper storage can’t be taken for granted; uncontrolled exposure to heat or reactive materials will still cause issues. Modern supply chains know that trace impurities or batch inconsistency can bring entire runs to a halt, so buying from trusted sources with rigorous quality checks forms the first layer of troubleproofing.
Industries need building blocks that help them innovate faster, safer, and at lower cost. 2-Chloro-3-Cyano Pyridine fills that role in fine chemical synthesis, pharmaceutical intermediates, agrochemicals, and dye manufacture. Take a closer look at the pharmaceutical world, which relies on niche intermediates to simplify synthesis routes for complex new drugs. Several antiviral and anti-inflammatory molecules start with a scaffold like pyridine, fine-tuned by careful substitution. Both the cyano and chloro groups on this molecule let chemists tap into nucleophilic aromatic substitution or engage in further functionalization, unlocking a broad palette of chemical reactions. Agricultural science also taps into this power, transforming it into potent crop-protection compounds. In research labs, scientists rely on molecular scaffolds like this to build libraries of candidate molecules for everything from medicinal chemistry to material sciences.
Plenty of pyridines compete for a spot in chemical recipes. Some come with halogen substitution alone, others carry just a cyano tag. The real appeal of 2-Chloro-3-Cyano Pyridine lies in the connection between its two functional groups: the chlorine sits at the 2-position, while the cyano group rests at position 3 on the aromatic ring. This placement changes the reactivity profile, letting chemists pull off transformations that standard pyridines wouldn’t enable. The molecule’s design encourages selectivity in downstream reactions, helping to address the longstanding challenge of controlling byproducts and maximizing target yield. In busy process labs, the cost of failure isn’t just in lost material, but in wasted time and troubleshooting—something this precise compound helps to cut down.
Supply chain fragility looms large in specialty chemicals. 2-Chloro-3-Cyano Pyridine’s consistent availability hinges on stable production processes and a robust vendor base. In the past few years, the global market has seen shockwaves—from raw material shortages to shipping delays—impacting intermediate supply. Laboratories and manufacturers must weigh options between local sourcing and importing, often juggling the requirements of bulk volumes, regulatory paperwork, and cold-chain storage. Some large facilities with rooftop R&D teams opt to synthesize critical intermediates on-site, aiming to dodge these risks. Yet off-the-shelf access to quality-checked material speeds research and commercial scale-up, keeping projects on track instead of caught up in procurement cycles. Observing fluctuations in international trade, chemists and buyers have learned to compare not just sticker prices, but long-term reliability and supplier transparency.
Chemical safety sits right alongside innovation as a top priority. Handling 2-Chloro-3-Cyano Pyridine follows industry-standard safety protocols—lab coats, gloves, fume hoods, air monitoring, and strict process documentation. In my own research experience, overlooked hazards or minor lapses in storing halogenated pyridine compounds led to headaches in compliance and risked team well-being. It only takes one mismanaged batch or spill to throw weeks of work into confusion, not to mention regulatory setbacks. On the brighter side, training programs and automation continue to close the knowledge gap for safe operation. Solid familiarity with this chemical’s properties—reactivity, compatibility, toxicology—keeps mishaps to a minimum and builds a safer research culture.
More industries are moving toward greener, safer chemistry. The pressure to cut down on hazardous waste, limit emissions, and utilize renewable resources applies to every new synthetic step. 2-Chloro-3-Cyano Pyridine, while indispensable, presents challenges common to many halogenated and nitrile-containing intermediates. Waste management teams must avoid water contamination, enforce stringent waste segregation, and engineer closed-loop systems. Recent studies highlighted that unchecked release of pyridine derivatives can disrupt aquatic ecosystems, which is why environmental monitoring around fabrication plants has become a non-negotiable. For years I’ve seen research groups take the initiative, engineering new routes to recycle process solvents, or recover spent pyridine compounds for re-use rather than disposal. Real progress flows from this attention to downstream impact and regulatory foresight, not just compliance.
Chemists rarely stand still. They’re always searching for better ways to make molecules, improve yields, and chip away at time and cost in the pipeline. 2-Chloro-3-Cyano Pyridine keeps showing up in patents for active pharmaceutical ingredients and advanced materials. I’ve followed conversations in academic circles where this compound paved the way for new heterocycle assembly strategies; in an age where small tweaks in molecular framework mean new patent territory or blockbuster medicines, every new application matters. Collaborative projects now explore even milder synthesis conditions and greener reagents, breaking away from reliance on harsh halogen sources or toxic catalysts. There’s excitement around one-pot process optimizations, telescoping multiple reaction steps, and limiting purifications to a single streamlined block. These shifts not only boost productivity but also fit with environmental goals becoming more urgent by the year.
The world of pyridine chemistry covers thousands of molecules—some with nitro groups, some with hydroxyl or methyl substitutions. 2-Chloro-3-Cyano Pyridine stands apart for its unique reactivity. Compared to 3-Cyanopyridine, adding chlorine boosts selectivity and lets process chemists choose from different reaction handles. This adaptability opens more synthesis doors. 2-Chloropyridine or 3-Chloropyridine each have their fans, but without the cyano group they miss out on the broad addition chemistry that’s essential to medicinal and crop science. Downstream, each small change in the scaffold triggers a cascade of different behaviors: solubility, stability, even downstream toxicology and emissions. Reviewing process files, companies consistently report higher atom economy and lower byproduct formation when starting with a well-calibrated, dual-substituted intermediate. The investment in precise starting materials pays off in overall sustainability and cost savings.
Ethics in the chemical industry touches on more than just compliance. Oversight agencies keep an eye on every stage, from raw material sourcing to end-product stewardship. For 2-Chloro-3-Cyano Pyridine, holding to high standards translates into strict analytical verification, clear provenance, and multi-stage auditing. This transparency builds trust with downstream partners and end users, and insulates companies from legal or image repercussions. The industry faces pressure to certify supply chains as free of conflict materials, minimize energy use, and ensure safe labor practices. Experience has shown that shortcuts undermine market confidence and often result in costly recalls or legal standoffs. On the positive side, following the rules—while burdensome at times—lets innovation and reputation grow together, appealing to both partners and customers investing in responsible sourcing and stewardship.
Some of the best ideas about new applications or improved synthesis for 2-Chloro-3-Cyano Pyridine stem from close ties between academic research groups and industrial laboratories. Many projects begin with a university-based proof-of-concept, scaling up through industry partnerships. Students and postdocs bring creativity and the drive to try unconventional approaches; experienced industrial chemists translate those fresh ideas into practical protocols and marketable solutions. This feedback between theory and practice sharpens the edge for both sides. Many of the process improvements we use now came out of collaborative consortia or open-innovation programs that shared data and took real-world limitations into account. Staying plugged into these networks keeps companies flexible and informs better long-term research planning.
No chemical intermediate moves through the market without friction. Price volatility, fluctuating demand, and tightening regulatory regimes all create headwinds. For 2-Chloro-3-Cyano Pyridine, inconsistent quality or sudden supply chain shocks have a ripple effect through research scheduling and product launch cycles. Firms are learning not to take steady access for granted; diversifying supply and planning for dual-vendor sourcing is becoming common business sense, not an afterthought. In my own practice, project workflows incorporate scenario planning around raw material disruptions, aligning with the industry-wide realization that resilience pays off far more than last-minute workarounds. Holistic resource management and digital traceability also gain ground, helping firms meet both investor and regulator expectations.
Smart choices in chemical sourcing ripple through the whole value chain. Selecting a well-characterized intermediate like 2-Chloro-3-Cyano Pyridine sets up research teams and manufacturers for success. This extends from anticipating potential bottlenecks early to adapting downstream processing for greener, safer output. The very properties that make it so effective—its predictable reactivity, its dual substitution pattern, its manageable side reactions—mean that the chemists who use it can focus less on troubleshooting and more on scale-up and innovation. Fact-based planning, reference to well-documented case studies, and sharing lessons learned contribute to ongoing improvement, from laboratory experiments up to multi-ton production runs. By investing in a culture where quality and curiosity go hand in hand, companies can deliver not just on market demand, but also on broader social and environmental responsibility.
Scientific progress rarely happens in isolation. Every new intermediate brings a web of interdependencies—raw materials, skilled people, safe handling, effective management. During my time in organic synthesis labs, I saw how even well-established chemicals like 2-Chloro-3-Cyano Pyridine can trip up poorly planned workflows or inspire creative leaps in process development. Sharing those stories across teams—what worked, what fell short—builds a base of practical wisdom. Junior researchers pick up habits of good documentation, cross-checking purity, challenging dogmatic protocols, and looking for more sustainable alternatives. The hope is that with each project iteration, new chemists see themselves not just as workers on a production line, but as custodians of both scientific advancement and societal outcomes.
Looking at the road ahead, 2-Chloro-3-Cyano Pyridine remains central to the evolution of chemistry-driven industries. Its nuanced reactivity profile, well-defined structure, and adaptability keep it in the toolkit for innovation and discovery. As market expectations grow and regulations tighten, the focus shifts toward continuous process refinement, safer production environments, and mindful stewardship of shared resources. Every improvement in its sourcing, safety, and sustainable use marks a step forward—not just for the companies that rely on it, but for society as a whole. Each advance builds on hands-on experience, reliable data, and honest assessment of both promise and challenge. With the right approach, the next chapter for this versatile compound looks bright.
