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3-Iodoanisole

    • Product Name 3-Iodoanisole
    • Alias 3-Methoxyiodobenzene
    • Einecs 216-592-4
    • Mininmum Order 1 g
    • Factory Site Tengfei Creation Center,55 Jiangjun Avenue, Jiangning District,Nanjing
    • Price Inquiry admin@sinochem-nanjing.com
    • Manufacturer Sinochem Nanjing Corporation
    • CONTACT NOW
    VTB
    Specifications

    HS Code

    466766

    Chemical Name 3-Iodoanisole
    Cas Number 3430-68-4
    Molecular Formula C7H7IO
    Molecular Weight 234.04
    Appearance Colorless to pale yellow liquid
    Boiling Point 240-242°C
    Melting Point -8°C
    Density 1.720 g/cm3
    Refractive Index 1.640
    Purity ≥98%
    Synonyms m-Iodoanisole; 1-Iodo-3-methoxybenzene
    Solubility Insoluble in water, soluble in organic solvents
    Storage Temperature Store at room temperature
    Smiles COC1=CC=CC(I)=C1
    Ec Number 222-374-1

    As an accredited 3-Iodoanisole factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing 250g of 3-Iodoanisole is supplied in an amber glass bottle with a secure screw cap, labeled with hazard and identification information.
    Shipping 3-Iodoanisole is shipped in tightly sealed containers, protected from light and moisture. It is classified as a hazardous chemical and must be handled according to regulatory guidelines. Packages are labeled appropriately and shipped by certified carriers, ensuring compliance with all safety, transport, and documentation requirements for chemical substances.
    Storage 3-Iodoanisole should be stored in a tightly sealed container, kept in a cool, dry, and well-ventilated area away from sources of ignition and incompatibles such as strong oxidizing agents. Protect it from light and moisture. Ensure proper labeling and avoid prolonged exposure to air to minimize decomposition. Follow local regulations and use appropriate chemical storage cabinets if available.
    Application of 3-Iodoanisole

    Applications of 3-Iodoanisole in Industrial Manufacturing

    As a specialized manufacturer of 3-iodoanisole, we supply this high-purity intermediate to global enterprises for integrated use in advanced chemical synthesis. The following sections outline its principal downstream applications, highlighting sector-specific requirements, practical formulation data, workflow positioning, and core finished product types.

    1. Pharmaceutical Active Intermediate Synthesis

    Major pharmaceutical companies incorporate 3-iodoanisole during multistep synthesis of active pharmaceutical ingredients (APIs), notably for select anti-hypertensive agents and central nervous system medications. Operators use this material for targeted arylation or cross-coupling modifications, where the iodine functional group plays a key role in step-efficient building of complex scaffolds. Its batch addition often determines by desired yield control, impurity minimization, and process safety performance.

    Industry compliance standards

    • Current Good Manufacturing Practice (cGMP, ICH Q7)
    • United States Pharmacopeia (USP), European Pharmacopoeia (Ph. Eur.)
    • FDA and EMA intermediate supplier audits
    • REACH registration for substance handling

    Typical usage ratio

    • 1.2–1.8 molar equivalents relative to the reactive core substrate; adjusted for specific cross-coupling targets and purification strategy.

    Downstream process integration

    • Introduced at the arylation or Suzuki–Miyaura coupling stage, following initial core assembly and preceding final de-protection or crystallization steps.

    Final product types

    • Antihypertensive drug ingredients (e.g., selective receptor antagonists)
    • Intermediates for psychoactive pharmaceuticals
    • Advanced chemical building blocks for branded APIs

    2. Agrochemical Synthesis (Herbicides and Fungicides)

    Producers of high-performance crop protection chemicals use 3-iodoanisole as a critical precursor in the tailored synthesis of select aryl ether and heterocyclic moieties. The compound’s precise molar dosing ensures optimal product conversion, minimal side-reaction byproducts, and compliance with residue standards for downstream field application. Incorporation takes place under strictly monitored reaction conditions to meet final product purity and toxicological specifications.

    Industry compliance standards

    • FAO/WHO Joint Meeting on Pesticide Specifications (JMPS)
    • ISO 9001:2015 for synthesis and downstream quality control
    • Regulation (EC) No 1107/2009 on crop protection product authorization
    • Applicable national Maximum Residue Limits (MRLs)

    Typical usage ratio

    • 0.5–1.3 molar equivalents, determined by fungicide or herbicide core structure and process yield optimization.

    Downstream process integration

    • Fed into etherification or ring closure steps to develop target bioactive motif; strict temperature and solvent control for selectivity assurance.

    Final product types

    • Precursor intermediates for aryl ether herbicides
    • Fungicide scaffolds with regulated field use
    • Aromatic backbone units for specialty agrochemicals

    3. Electronic Materials—OLED Small-Molecule Precursors

    Our industrial clients in display and electronics sectors utilize 3-iodoanisole to synthesize specialty OLED intermediates, especially methoxy-substituted arene building blocks. The material enters as a coupling component to install functionalized groups for charge-transport layer or emitter development, where purity impact is critical on device performance. Low-halide, high-assay raw material guarantees minimized contamination in microelectronic settings.

    Industry compliance standards

    • ISO 14001:2015 Environmental Management Systems
    • RoHS (Restriction of Hazardous Substances Directive—2011/65/EU)
    • IECQ HSPM QC 080000 (Hazardous Substance Process Management)
    • Customer-defined electronic grade QC specifications

    Typical usage ratio

    • 1.0–1.5 equivalents, depending on specific coupling step requirements within OLED intermediate assembly lines.

    Downstream process integration

    • Employed at the Suzuki or Buchwald–Hartwig coupling stage to link aromatic segments in precursor synthesis, prior to final device doping or layer deposition.

    Final product types

    • Small-molecule OLED emissive layer components
    • Charge transport layer precursors
    • Hole injection and block unit source chemicals

    4. Specialty Dye Intermediates for Colorant Manufacturing

    Dye manufacturers select 3-iodoanisole for use in multi-step syntheses of custom aromatic chromophores, where it enables the controlled formation of methoxy-functionalized intermediate systems. Carefully managed proportions during coupling and ring substitution reactions directly affect color strength, hue stability, and overall batch reproducibility, subject to industry dye-assay and hazardous substance norms.

    Industry compliance standards

    • ISO 9001:2015 for process and quality control
    • REACH Annex XVII (restriction of hazardous substances in dyes)
    • Oeko-Tex Standard 100 (for textile-related colorants)
    • Customer-specific azo and halogen content policies

    Typical usage ratio

    • 0.6–1.0 molar equivalent, calculated to achieve stoichiometric conversion and avoid chromatic impurity formation; precise ratios set based on dye series and downstream integration.

    Downstream process integration

    • Input at the aromatic coupling step for aryl ether or methoxy-arene formation; follows base chromophore backbone assembly, and precedes final dye finishing, purification and formulation.

    Final product types

    • Reactive and direct textile dyes
    • Ink-jet and specialty printing dyes
    • Colorant intermediates for plastics and coatings

    5. Fine Chemical Building Block for Research-scale Synthesis

    Advanced research laboratories and custom synthesis companies employ our 3-iodoanisole to develop novel functionalized aromatic compounds for evaluation in new material and pharmaceutical lead projects. Here, accuracy in addition and documentation of handling aligns with international laboratory chemical management, and the substance enters during early combinatorial or library-building steps, offering reliable reactivity for rapid synthetic diversification.

    Industry compliance standards

    • GLP (Good Laboratory Practice) guidelines for research chemical use
    • REACH and GHS labelling for storage and disposal
    • Local regulatory approvals for new substance synthesis research
    • ISO/IEC 17025 for analytical laboratory quality

    Typical usage ratio

    • 0.3–2.0 equivalents, adjusted to match scale (mg–g) and target transformation efficiency; determined per project formulation protocol.

    Downstream process integration

    • Typically added at key coupling or arylation stages during small-scale batch synthesis and parallel screening workflows.

    Final product types

    • Experimental pharmaceutical intermediates
    • New aromatic fine chemicals
    • Research-scale dye and material informers
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    Certification & Compliance
    More Introduction

    3-Iodoanisole: Insights from Direct Experience in Chemical Manufacturing

    Bringing 3-Iodoanisole to Market With Diligence and Experience

    In today’s synthetic landscape, 3-Iodoanisole stands out for chemists and production managers in search of a reliable building block. Producing this compound consistently has taught us that even a minor shift in feedstock can influence its physical appearance and purity. Each batch becomes an audit trail, reflecting everything from raw material sourcing to the fundamental handling practices set by our crew. We stay close to each production step—never leaving quality to chance. Only those who spend time at the reactor’s side truly understand how much subtlety lies in the day-to-day handling of an iodinated aromatic like this.

    Understanding 3-Iodoanisole’s Characteristics Within a Real Manufacturing Context

    3-Iodoanisole, sometimes called meta-iodoanisole, features a methoxy group at the third position on the benzene ring relative to the iodine atom. This arrangement grants it reactivity that differs significantly from ortho and para isomers. Our standard lot delivers a clear to off-white liquid appearance. Smart temperature control during synthesis keeps trace degradation products to a minimum, helping us hit assays above 98% by GC. We ship in airtight containers, usually in steel or high-density polyethylene, matching what we know works best for storage and handling in industrial settings.

    Why Physical Purity and Trace Impurity Profiles Matter

    We have seen firsthand that not all 3-Iodoanisole samples perform equally. Slight traces of ortho- or para- isomers introduce unwanted by-products in downstream reactions, especially in pharmaceutical and specialty chemical applications. Markets expect more than a purity number—they want predictability over many batches. Lessons learned from earlier years, running without the right recirculation or fraction collection systems, taught us what end-users experience when a batch doesn’t deliver: increased waste, uncertain yields, and troubleshooting that cuts into valuable operating hours.

    Manufacturing Metrics That Define Reliability

    Our plant control records show that 3-Iodoanisole’s GC-mass purity always exceeds 98%, and water content stays under 0.2% by Karl Fischer titration. Maintaining trace metal limits often calls for periodic line audits and operator retraining. We favor locally sourced starting materials only after direct validation, avoiding bargain intermediates that threaten consistency. Our in-process sampling catches off-trend shifts early, which lets us intervene before problems reach finished drums.

    Specific Applications Supported by Decades of User Feedback

    From feedback across pharmaceutical R&D, crop-protection, and dye manufacturing, users push for tighter control over trace residues. For metal-catalyzed couplings such as Suzuki and Buchwald-Hartwig reactions, 3-Iodoanisole offers a versatile handle for aryl iodide chemistry. In these couplings, purity translates into cleaner reactions, higher isolated yields, and smoother scale-up—details we monitor every time an operator hands over a batch slip and sample to the QA team. More than one customer has shared stories of projects rescued after switching from sources who treat product purity as a checkbox, rather than a promise.

    Addressing Distinctions from Alternative Iodoanisole Isomers

    We frequently get asked about the differences between our meta-isomer and its close relatives, such as 2-Iodoanisole or 4-Iodoanisole. Synthetic pathways shift markedly depending on the isomer in play. The meta variant allows selective functionalization at unblocked ortho or para sites, which remains essential in programs aiming for site-selective cross-coupling. Trying to substitute in the wrong isomer, we’ve seen pharma clients run into wasted time and budget, as regioselectivity and final yields drop off. Demand for our product comes from those who understand that substitution patterns aren’t just academic—they carry real commercial weight.

    Regulatory Compliance: Built into Operations from the Ground Up

    Navigating the oversight landscape in chemical manufacturing takes steady hands and seasoned eyes. We count on daily documentation and rigorous training to stay on top of regulations affecting specialty iodinated aromatics. Auditors want traceability and reproducibility, and our in-house protocols meet current requirements. We designed our systems and batch records to be as transparent as possible, so our partners know exactly what leaves our facility’s doors. Our experience has shown that short-cuts or workarounds end up costing more—both for us and the customer—than the diligence of proper process validation and record-keeping.

    Process Development: Realities of Scaling 3-Iodoanisole Production

    The journey from gram-scale bench synthesis to commercial plant output comes with challenges unique to iodinated compounds. Iodine carries a price volatility, so we partner with suppliers who understand why sudden swings in purity or form can derail an entire production campaign. Our reactors have been adapted for efficient agitation, since dense, sticky side products tend to gum up under less than optimal shear. The heat distribution plays a vital role in managing side reactions, whether that means fine-tuning condenser settings or keeping nitrogen flows tight. It’s not enough to run an efficient lab-scale route—what works in glassware sometimes falls flat in multi-liter steel. Decades in the trenches have driven home the value of both mechanical reliability and operator experience.

    User-Oriented Solutions and Continuous Improvements

    Years of customer audits and technical visits have shaped how we manage each production campaign. Some users need large drum quantities, others request smaller, more frequently rotated containers to minimize oxidation during storage. In response, we diversified our packaging systems, adding automated nitrogen blanketing and rapid-seal closures. We listen to technical staff downstream. Seeing the impact of trace moisture on palladium-catalyzed steps urged us to invest in new drying lines and updated headspace analysis tools. This isn’t theory—it’s the outcome of responding to practical, field-level problems from real working chemists.

    Troubleshooting and Collaboration with Industry Partners

    Once, an agrochemical partner reported an unexpected color change and yield drop in their intermediate coupling. Our lab worked through their samples, tracing the issue to a trace oxidant contamination from a previously supplied batch. The investigation led to adjustments in our own process filtration and in-process sampling windows. We documented root causes, shared findings directly, and offered improved lots—transforming a failure into a better long-term working relationship. These lessons have shaped our standards for internal QA and transparency.

    Environmental Responsibility and Waste Management in Daily Operations

    Handling iodinated aromatics brings unique waste management questions. We sort, treat, and log all residual material, making use of verified disposal suppliers. Reducing iodine run-off is both a regulatory and local community priority, so we updated processes to maximize recovery and minimize excess. These aren’t box-ticking gestures: we want to keep our plant’s output both safe and sustainable. Staff receive training on proper residual handling, and we foster a culture that values waste minimization—not just because we have to, but because our own legacy is at stake.

    Empowering the Technical Buyer: What Sets Our Product Apart

    As the actual manufacturer, we engage with buyers who dig deeper than spec sheets. Many have hands-on histories, asking for composition certificates, COA data, and impurity breakdowns. We meet these demands directly, drawing from our internal testing and document management. Those who buy directly from us can observe or audit our processes. That openness draws repeat business, and mutual trust grows when accuracy and accountability back every shipment.

    Addressing Risk: Safety Considerations Through Real Experience

    Managing 3-Iodoanisole batches means real hands and eyes at risk, not just statistics on a sheet. Our plant keeps rigorous track of exposure risks during iodination steps. Handling protocols grew stricter after an early operator incident—so we adapted both ventilation and personal equipment to match the substance’s volatility and reactivity profile. This approach keeps both product and people protected, making sure that what we ship out reflects the care we invest every step along the way.

    Common Questions from Seasoned and New Users

    We regularly hear from both small- and large-volume buyers about solubility, compatibility, and storage stability. Having worked through hundreds of conversations, we find most users want to know whether the product stays stable in light and air, or how it behaves in sensitive coupling chemistry. Detailed feedback from our post-shipment surveys show that many customers see fewer reaction complications when they shift to our freshly produced lots. We avoid unnecessary solvents and stick to inert packaging, so the chemical remains within spec for longer transport or storage cycles.

    Supply Chain Transparency Through Direct Manufacturer Dialogue

    Market demand for iodinated intermediates has increased, but supply security stays uncertain for many buyers. Our practice is to keep a buffer inventory and maintain close relationships with raw iodine suppliers. Direct communication, rather than third-party brokers, lets us pass real updates and avoid misinformation. Our technical leads speak openly about both order timing and batch readiness, helping customers plan projects with fewer surprises.

    Batch Consistency Achieved Through Experience, Not Happenstance

    Reproducibility in chemistry comes from repeatable processes, not hope or abstract systems. We base our quality checks on hands-on process know-how, not just analytical reports. Each operator—from the shift who monitors reaction kinetics to the one tracking filtration—plays a role in producing a batch that behaves the same time and time again. Through years of hands-on synthesis, we learned that each step—charging reagents, controlling temp ramps, choosing the correct drying method—directly shapes what comes out at the end. Buyers return for this predictability, as it lowers hassle and project risk.

    Long-Term Partnerships: More than a Transaction

    The customers who value consistency tend to stay with manufacturers who communicate and adapt. Feedback from multinational R&D teams and lean startups alike has driven updates in our process and packaging. In some cases, that means prepping custom-sized units. Other times it means adjusting quality control tests to better match end-use requirements. Our evolution comes not from abstract process improvement but from growing with every customer query and plant-side troubleshooting call.

    Adaptability Amid Changing Regulatory and Market Conditions

    As regulatory bodies tighten requirements around aromatic iodides, we update safety files, toxicology paperwork, and transport certifications with each change. Rather than wait for an external prompt, we built a system where plant managers and technical compliance staff meet monthly to review new information—whether from government updates or emerging science. By staying proactive, we reduce downtime and keep our output aligned with market and legal expectations.

    Tangible Differences from Other Market Offerings

    Other sources, especially traders or re-packagers, often lack traceability. We see products re-sold under questionable conditions, with storage or transport introducing instability long before the user gets the drum. By controlling every aspect of synthesis and storage, we eliminate confusion over product history. This attention to detail means fewer unknowns and headaches for users running time-sensitive syntheses. The benefit of buying directly from the manufacturer reflects not just in a certificate of analysis, but in a record of every step from starting material to delivery.

    Final Thoughts: What Years in Manufacture Have Shown Us

    Working daily with 3-Iodoanisole doesn’t just mean turning out drums and invoices. It means staying alert to what customers experience when a batch lands and a reaction setup begins. Failures and successes shape our process, and each inquiry drives improvements. Our team values the expertise of both our staff and our customers, knowing well that the best chemical manufacturing grows from constant learning, clear communication, and straight answers. The result is not just a chemical, but a standard of reliability appreciated in labs, pilot plants, and full-scale manufacturing lines worldwide.