|
HS Code |
261456 |
| Chemicalname | 4-Iodo-3-Nitrotoluene |
| Casnumber | 636-98-6 |
| Molecularformula | C7H6INO2 |
| Molecularweight | 263.03 g/mol |
| Appearance | Yellow to orange crystalline solid |
| Meltingpoint | 81-84°C |
| Density | 1.98 g/cm³ |
| Solubility | Slightly soluble in water, soluble in organic solvents |
| Purity | Typically ≥98% |
| Smiles | Cc1cc(I)c([N+](=O)[O-])cc1 |
| Ecnumber | 211-265-7 |
As an accredited 4-Iodo-3-Nitrotoluene factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Amber glass bottle, 25g, tightly sealed with screw cap, labeled "4-Iodo-3-Nitrotoluene," includes hazard warnings and handling instructions. |
| Shipping | **Shipping Description for 4-Iodo-3-Nitrotoluene:** 4-Iodo-3-Nitrotoluene is shipped in secure, leak-proof containers that comply with hazardous material regulations. It should be transported under dry, cool conditions, away from incompatible substances. Proper labeling—including hazard class and UN number—is required, and shipping must comply with local, national, and international dangerous goods transport guidelines. |
| Storage | 4-Iodo-3-nitrotoluene should be stored in a tightly sealed container, away from light and incompatible substances such as strong oxidizing agents and reducing agents. Keep it in a cool, dry, and well-ventilated area, ideally in a flammable chemicals storage cabinet. Ensure proper labeling, and avoid exposure to heat, sparks, or open flames. Handle with appropriate personal protective equipment. |
Applications of 4-Iodo-3-Nitrotoluene in Industrial Manufacturing4-Iodo-3-nitrotoluene serves as a specialized intermediate across select chemical manufacturing sectors. As a producer, we supply this compound to downstream industries with tightly defined process integration, regulatory frameworks, and tailored formulation protocols. 1. Active Pharmaceutical Ingredient (API) Synthesis for Antibacterial AgentsThis compound acts as a building block for certain heterocyclic scaffolds essential in the development of second-generation antibacterial drug substances. In manufacturing, chemists use it for regioselective substitution reactions leading to pyridine and quinoline derivatives. Reaction monitoring ensures full conversion before intermediate purification. Process safety and traceability receive priority in all steps due to the strict regulatory environment for APIs. Industry compliance standards
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2. High-Performance Dye and Pigment ManufacturingDownstream dyestuff producers rely on 4-iodo-3-nitrotoluene in the synthesis of disperse, azo, and anthraquinone dye classes. The nitro and iodo groups facilitate selective coupling and ring construction under controlled temperature and pH. Manufacturers incorporate the material during early synthesis to achieve specific color strength and lightfastness benchmarks in fabrics and plastics. Industry compliance standards
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3. Agrochemical Intermediate ProductionLeading crop protection manufacturers use this compound to introduce functional diversity into herbicide and insecticide candidates containing aromatic nitro groups. Early in synthesis, it supports electrophilic substitution yielding complex molecules with improved activity spectra. Precise dose management and residue control form the backbone of compliant, large-scale agrochemical operations. Industry compliance standards
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4. Liquid Crystal Intermediate SynthesisElectronic display manufacturers turn to 4-iodo-3-nitrotoluene in the creation of key intermediates for liquid crystal compounds. The nitro and iodo substituents enable fine-tuning of molecular polarity and phase transition temperatures critical for LCD performance. Stringent process controls govern use to avoid ionic or solid residue contamination in downstream manufacturing. Industry compliance standards
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5. Specialty Polymer Initiator and Chain ModifierChemical engineers incorporate 4-iodo-3-nitrotoluene to initiate or modify specialty polymer backbones, particularly for aromatic engineering resins. Both functional groups play a role in enabling nucleophilic aromatic substitution and halogen-mediated chain termination, resulting in improved thermal and chemical stability. Factory protocols emphasize precise metering to control molecular weight distribution and end-group fidelity. Industry compliance standards
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In every drum of 4-iodo-3-nitrotoluene leaving our production site, there’s the know-how that comes from decades of direct manufacturing. This aromatic compound, with its iodine and nitro functional groups locked onto the toluene ring, doesn’t just float through labs for novelty. Over years of scale-up, batch trials, and real-world use, we’ve gotten to know this intermediate inside and out. Consistent purity matters most to users, especially in the synthesis of specialty chemicals where contaminants can mean a failed reaction or lost time. Our batch records track every step, and regular in-process controls spot any drift before it leaves the reactor.
We produce 4-iodo-3-nitrotoluene with a focus on the practical details that often get lost in distributor listings: flowability for easy transfer, low residual moisture for sensitive reactions, and packaging that matches its sensitivity to light and air. The yellow crystals we ship aren’t just about looking clean — visual clarity reflects a process that leaves no room for unwanted halides, organics, or by-products. HPLC and GC tests run before packing, not just for compliance, but because we know a single percent impurity can cause headaches across downstream steps.
It takes more than just ticking off a CAS number to stand out. We work from well-chosen starting materials sourced directly rather than through trading chains. Each reaction is tightly controlled, with reagent additions dialed in to minimize over-iodination or incomplete nitration. Temperature and moisture management—often skipped by less-experienced outfits—make the difference between reliable reactivity and frustrating by-products. We’ve seen our share of process upsets; by now, we’ve fine-tuned agitation and cooling methods to keep the output predictable and efficient, whether for pilot or multi-ton campaigns.
In our field, speed and repeatability count. When pharmaceutical and agrochemical companies place orders, they’re looking for something better than average: substance that doesn’t just react as intended but arrives on time, in packaging designed for preservation. Our tight packaging minimizes product degradation and limits risk during storage or transit, keeping the compound’s reactivity consistent for months. Users tell us that flakes and off-colored batches from the market often mean filter clogs or lost yield. Our focus on batch detail, and not just meeting minimum specs, comes directly from feedback—both from successful launches and through working with clients to solve scale-up problems.
The unique position of the iodine and nitro groups makes our product stand apart. In the landscape of substituted toluenes, structural variation changes how a molecule interacts in later steps. 4-iodo-3-nitrotoluene typically reacts more efficiently in cross-coupling, due to the placement of the iodine atom, compared to its chloro- or bromo- analogs. The electron-withdrawing nitro group shapes reactivity—not just theory, but in practice as we’ve seen in downstream processes. We monitor heavy metal content and halide levels more tightly because small shifts there can mean big changes in product safety or regulatory compliance at the user’s end.
We see customers provided with cheaper alternatives containing higher levels of poly-iodinated by-products or with random moisture content. That often means unpredictable yields, extra purification, and a cycle of bottlenecks that costs more in the long run. Our lab tracks batch-to-batch performance, and repeating consistent quality is central to our operation. This isn’t about paper promises; it’s about applications running without surprises—protecting both user investment and worker safety.
End uses shape the way we make and deliver this compound. The pharmaceutical sector, in particular, demands levels of trace impurity control beyond standard thresholds. Our quality assurance team includes chemists who have run these reactions at scale, meaning they understand the small but crucial details that keep downstream synthesis robust. In the dye and pigment industry, color clarity and stability under UV are as important as chemical identity. The way 4-iodo-3-nitrotoluene takes part in diazo coupling depends on consistent purity. We’ve supported process introductions in everything from early-phase research to registered intermediates for scale-up, often helping end users adapt handling protocols to maximize safety and efficiency.
We routinely receive requests for custom packaging: high-barrier sacks for humidity-sensitive campaigns, inert gas flushed drums, and units pre-weighed for glovebox use. Our logistics chain builds from feedback—users requiring rapid material transfer get flowable formats; those running small pilot syntheses often prefer ampoules or bottles for manageable splits. Our team treats each application not just as a sale, but as a partner’s process.
Over many years of manufacturing, the most common pain points trace back to overlooked process steps: incomplete recrystallization or hasty drying. These shortcuts can result in hidden pockets of moisture or solvent residues that disrupt catalysis or polymerization in the end use. By triple-checking each lot through our on-site QC lab—using melting point, spectrophotometry, and quantitative microanalysis—we spot the subtlest variations. End users running scale reactions spot variance right away, so we track internal standards from sample retainers over multiple years to offer support on demand. This long-term perspective informs not just our batch release, but how we refine the process itself.
Over time, we’ve also seen the impact of regulatory and environmental pressures change what’s required. Customers in Europe and North America ask about halide limits, shipping protocols, or GHS compliance, all of which impact materials supply and logistics. Our documentation covers every lot, and we regularly update hazard communication according to the latest standards, working with downstream partners to keep all segments in sync—even as local controls and labeling rules evolve.
The practical side of sourcing this compound involves more than just technical data. Price volatility in the iodine market can drive up raw material costs. We mitigate this by forward-purchasing and contracting with reliable suppliers for both the halogen and nitro precursors, ensuring both continuity of supply and price stability for recurring contracts. Shipments across different jurisdictions pass through careful regulatory checks, particularly for airfreight or bulk procurement, and our shipping department works with consignees to make sure there are no avoidable customs delays.
Users investing in pilot or production-scale synthesis need to know not only purity and functionality but also how well the manufacturer can support repeat orders under tight timelines. We schedule production lots aligned with customer shutdowns and starting campaigns, offering flexibility in batch sizes and scheduling priority runs in response to urgent demand signals. The focus is always on repeatability—one drum after the next—since switching suppliers mid-process can mean regulatory headaches or failed product launches.
Manufacturing chemistry isn’t static. As we learn from each batch—and from collaboration with end users—improvements find their way directly into the process. Over the last decade, we’ve updated our nitration control to boost selectivity, reducing off-target dinitro compounds and minimizing purification waste. The solvent recovery systems we invested in have enabled a cleaner process, reducing environmental impact while simultaneously cutting costs passed along to the customer. Each change is documented, and users are kept in the loop, especially where downstream regulatory registration is involved.
Safety in handling, especially at industrial scale, continues to drive much of our dialogue with those in the field. Training sessions on proper ventilation, containment, and personal protective equipment reflect challenges we know firsthand from plant operations. Working directly with customers’ EHS departments, we adjust packing and labeling based on actual shop-floor setups—sometimes adopting smaller or more robust packaging depending on specific site needs, always prioritizing worker safety and regulatory compliance.
What distinguishes a true manufacturer’s product from commodity traders is not a simple certificate or data sheet but the willingness to stand behind the product for its entire lifecycle. We take part in troubleshooting, root cause investigations when trouble hits a campaign, and provide analytical support to chase down any discrepancies. Batch failures at client sites get tracked, samples re-analyzed, and processes reviewed, not dismissed as a cost of doing business. This kind of support ensures confidence goes beyond a single transaction, resulting in longstanding supplier partnerships that benefit all involved.
Some industries demand more than a one-size-fits-all concept, particularly where scale-up from milligram to multi-kilogram becomes a bottleneck. We guide users through test reactions and, if needed, provide analytical samples for process development. In the rare event that a batch runs off-spec, our traceability points straight back to recorded process conditions, corrective actions, and improvement decisions. These lessons build trust and enable innovation and risk-taking, essential in cutting-edge research or fast-moving commercial environments.
Laboratory and production teams face growing burdens related to sustainability and compliance. Our facility continuously invests in better waste management and emission-reduction technology to ease downstream reporting and environmental audits. Wherever possible, we adapt the process to use less hazardous reagents, recycle solvents, and observe best practices for effluent treatment. These investments echo through the value chain, supporting consumer-facing firms in their own ESG and sustainability narratives. Regulatory audits have shaped both the equipment and the documentation practices that govern our production, giving customers assurance that each lot shipped meets modern standards—whether for REACH, TSCA, or national registries.
Documentation accompanies every shipment—data that resonates with traceability regulations, hazard management protocols, and batch certification rules. In-house teams field regulatory inquiries quickly, supplying certificates, test results, and declarations as needed for registration or market entry. We’ve seen how this responsiveness clears the path through customs, accelerates regulatory filings, and lowers the risk of market-entry delays.
Feedback from the field tells us a lot about what matters. Synthesis reliability at the user site depends on tight process parameter control and zero surprises in impurity profiles. Some users require on-site audits before approving a source—and our open-door policy encourages this scrutiny. Through these in-person reviews, production partners have seen firsthand the rigorous segregation of raw materials, dedicated equipment for each intermediate, and tight documentation workflows that set our batches apart from the competition.
Our after-sales support isn’t outsourced or run from a distant office. Chemists and engineers behind the product line engage directly with technical questions, sampling practices, or even regulatory filings. The expertise of a manufacturer who handles every aspect of creation, packaging, and support, day in and day out, leads to solutions grounded in what actually works—not just theory. This builds a culture of transparency and accountability, making sure unexpected batch issues prompt a review rather than a repeat.
We see the chemical sector heading into even stricter quality and supply chain expectations. Sourcing high-purity toluene, maintaining reliable iodine supply in light of worldwide price swings, and staying ahead on compliance are constant considerations. We regularly collaborate across supplier networks to keep our own feedstocks steady—working with mining, refining, and specialty chemical partners to reduce volatility and anticipate global market shocks. As environmental pressure grows, adapting production to lower waste and emissions requires capital and commitment, but the return is in lower downstream costs and more secure market access for everyone.
Emerging applications require close partnership between manufacturer and client—sometimes adjusting synthesis for new product lines or novel pharmaceuticals. By keeping our lines of communication open and putting technical staff at the center of customer support, we’re ready to experiment, adapt, and troubleshoot in real time. This approach has helped launch niche projects where research teams need just-in-time support, sometimes equipping pilot labs, other times co-developing modified grades.
Our 4-iodo-3-nitrotoluene stands as a product refined from every lesson learned—through failures, improvements, and feedback. Comparing our material to what’s offered through resellers reveals the difference between a product that performs and one that merely appears to. Reliability, supported by a process built with care, ensures that customers focusing on pharmaceuticals, dyes, custom synthesis, or academic research receive exactly what their process needs—with no hidden setbacks.
Many of the industry’s pain points—unexpected impurity spikes, late arrivals, poor handling instructions—trace back to out-of-touch supply chains and a lack of end-user focus. By controlling every step from basic reagents through to shipped package, and sharing our insights directly with users, we maintain a bond of trust and service. The spirit of continuous improvement, listening, and direct involvement makes our product not just a chemical, but a solution crafted for the real-world needs of our partners.
Choosing a source of 4-iodo-3-nitrotoluene impacts not only the next batch, but also the overall integrity of product development, regulatory approval, and downstream application. For those who rely on more than the minimum—who seek to grow reliable, innovative, and trusted operations—alignment with a manufacturer that shares those ambitions reduces risk and supports success. We provide the insight, the attention to detail, and the partnership that turn an intermediate step into a foundation for progress.