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Ethyl 3-Iodobenzoate

    • Product Name Ethyl 3-Iodobenzoate
    • Alias Ethyl 3-iodobenzoate
    • Einecs 622-006-2
    • 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

    724303

    Cas Number 61335-39-1
    Molecular Formula C9H9IO2
    Molecular Weight 276.07
    Appearance Colorless to pale yellow liquid
    Boiling Point 310-312 °C
    Density 1.702 g/cm3
    Purity Typically >98%
    Smiles CCOC(=O)C1=CC=CC(I)=C1
    Inchikey KCGHSUQOAZGVPK-UHFFFAOYSA-N

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

    Packing & Storage
    Packing The packaging for Ethyl 3-Iodobenzoate (25g) is a sealed amber glass bottle with a tamper-evident cap and clear labeling.
    Shipping Ethyl 3-Iodobenzoate is typically shipped in tightly sealed containers to prevent leakage and contamination. The chemical should be protected from light, moisture, and incompatible substances, and transported according to all applicable regulations for hazardous materials. Proper labeling and documentation are required to ensure safe and compliant delivery.
    Storage Ethyl 3-iodobenzoate should be stored in a cool, dry, and well-ventilated area, away from sources of ignition and incompatible materials such as strong oxidizers. Keep the container tightly closed when not in use. Store in a tightly sealed, labeled container, and protect from moisture and direct sunlight. Follow relevant safety guidelines and local regulations for chemical storage.
    Application of Ethyl 3-Iodobenzoate

    Applications of Ethyl 3-Iodobenzoate in Industrial Manufacturing

    Ethyl 3-Iodobenzoate serves as an efficient intermediate in several specialized downstream industries. Our manufacturing expertise ensures consistent quality for demanding synthesis processes in pharmaceutical, agrochemical, and specialty chemical production, supporting adherence to global compliance standards and driving targeted end-use performance. Below, we detail its specific industrial applications, focusing on clearly defined scenarios relevant to large-scale users.

    1. Pharmaceutical API Synthesis

    Leading pharmaceutical producers employ Ethyl 3-Iodobenzoate as an aromatic iodide precursor for generating key intermediates in the synthesis of various small-molecule APIs. This compound participates in palladium- or copper-catalyzed cross-coupling reactions (e.g., Suzuki, Sonogashira, Buchwald-Hartwig couplings) to introduce functional groups on the benzene ring, ultimately constructing complex heterocyclic scaffolds and active core fragments found in oncology, antiviral, and central nervous system drug molecules.

    Industry compliance standards

    • Current Good Manufacturing Practices (cGMP, ICH Q7)
    • United States Pharmacopeia (USP)
    • European Pharmacopoeia (EP)
    • Japanese Pharmacopoeia (JP)

    Typical usage ratio

    • 0.3–0.8 molar equivalents relative to the primary nucleophile, adjusted based on coupling efficiency and catalyst system selections

    Downstream process integration

    • Charged at the aryl halide addition step in the multi-step small-molecule synthesis, typically under inert atmosphere right before the catalytic cycle initiation; purification follows via extraction and crystallization

    Final product types

    • Active Pharmaceutical Ingredients (APIs) for anti-cancer drugs
    • Antiviral drug precursors
    • CNS-active heterocycle intermediates
    • Finished dosage forms after final API formulation by downstream partner

    2. Agrochemical Intermediate Manufacturing

    Agrochemical formulators use Ethyl 3-Iodobenzoate for the stepwise assembly of selective herbicides, fungicides, and insecticides. Its iodine functional group enables efficient halogen exchange or arylation steps, forming new C–C or C–N bonds crucial for introducing structural diversity and bioactivity in crop protection molecules targeting major soil and foliar pathogens as well as resistant weeds.

    Industry compliance standards

    • Food and Agriculture Organization (FAO) Specifications
    • OECD Guidelines for the Testing of Chemicals
    • ISO 9001:2015 Quality Management System
    • REACH Regulation (EC) No 1907/2006

    Typical usage ratio

    • 5–20% by weight in intermediate synthesis formulations, optimized based on target yield and process cost factors

    Downstream process integration

    • Fed into the halogenation or coupling reaction step within batch reactors, often co-charged with other aryl halide partners, followed by controlled hydrolysis or ester transformation as required for the final structure

    Final product types

    • Selective herbicide intermediates
    • Precursor molecules for fungicides such as benzimidazoles
    • Insecticide candidate scaffolds for regulatory field trials
    • Technical grade agrochemical actives awaiting formulation

    3. Specialty Chemical Synthesis

    Manufacturers of specialty fine chemicals utilize Ethyl 3-Iodobenzoate for constructing functional aromatic esters and custom heterocyclic compounds via cross-coupling or nucleophilic substitution. These specialty intermediates often find use in colorant development, advanced materials research, and custom additive formulation, where controlled reactivity and high-purity intermediates are essential for prototype or pilot-scale runs.

    Industry compliance standards

    • ISO 9001:2015 Certified Manufacturing
    • Responsible Care Global Charter
    • Regulation (EC) No 1272/2008 on Classification, Labelling and Packaging (CLP)
    • German Chemicals Act (ChemG) for specialty segments

    Typical usage ratio

    • 0.1–0.25 molar equivalents relative to substrate in catalytic batch synthesis, modified according to purity requirements and downstream property targets

    Downstream process integration

    • Dosed at the coupling or substitution stage after solvent charging and base activation; monitored carefully for GC/HPLC purity benchmarks before product isolation

    Final product types

    • Chromophore intermediates for dye and pigment synthesis
    • Monomers and oligomers used in specialty polymers
    • Functional performance additives for electronics and coating matrices
    • Custom small-batch chemical libraries for R&D

    4. Diagnostic and Radiolabeling Agent Synthesis

    Contract manufacturing organizations (CMOs) in medical imaging applications source Ethyl 3-Iodobenzoate for the preparation of radioiodinated tracers and diagnostic agents. Its benzoate structure acts as a precursor for late-stage radioiodination by isotope exchange, facilitating incorporation of I-123 or I-125 isotopes for PET and SPECT imaging probes targeting specific biological markers and organ systems.

    Industry compliance standards

    • US FDA cGMP for PET Drugs (21 CFR Part 212)
    • U.S. Pharmacopeia Chapter <825>: Radiopharmaceuticals
    • European Pharmacopoeia Monograph 0125 on Radiopharmaceutical Preparations
    • ISO/IEC 17025:2017 Laboratory Competence

    Typical usage ratio

    • Microgram to milligram scale relative to final activity level, with process optimized based on specific activity and radiochemical yield requirements

    Downstream process integration

    • Introduced at final radiolabeling step in isotope exchange, typically after purification of precursor batch; processed rapidly under hot-cell containment for immediate downstream formulation

    Final product types

    • Radioiodinated molecular imaging probes
    • Diagnostic kits for PET/SPECT procedures
    • Reference standards for radiopharmaceutical development
    • Ready-to-use injectable tracers for hospital nuclear medicine units
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    Certification & Compliance
    More Introduction

    Ethyl 3-Iodobenzoate for Advanced Applications: A Manufacturer’s Perspective

    Understanding the Real Workhorses: Fine Chemicals in Modern Synthesis

    In the world of fine chemicals manufacturing, detail rarely escapes notice. Our industry runs on consistency, reliability, and a clear sense of purpose rooted in the effort behind every process scale-up and every customer inquiry. Ethyl 3-Iodobenzoate stands as a genuine example of what years of process refinement and quality focus can achieve. We take pride in bridging the gap between laboratory concepts and real, high-purity chemical solutions at an industrial scale, building every batch on true process understanding rather than simply shuffling bulk products between warehouses.

    Ethyl 3-Iodobenzoate fits into a critical set of building blocks for pharmaceutical intermediates, agrochemical candidates, and new materials. The reason is simple: the presence of the iodine atom at the meta position lends this molecule a unique level of synthetic versatility. By enabling Suzuki couplings, Sonogashira reactions, and other cross-coupling methodologies, this compound keeps process routes open for both established and emerging products. Over the years, customer projects have shown that fewer rearrangements during late-stage development often depend on a reliable, consistently pure supply of functionalized benzoates like ours.

    Developing the Right Ethyl 3-Iodobenzoate: Attention to Methods and Scale

    Anyone involved with aromatic iodides quickly learns that purity, residual solvents, and byproduct control make all the difference in day-to-day operations. We refine our Ethyl 3-Iodobenzoate through established protocols designed for both impurity control and ease of handling during downstream chemistry. Over time, our labs have pushed the process to minimize hydrolysis, avoid excess unreacted materials, and keep the final product free from residual acids or unwanted alkylation byproducts. Routine assays by GC and NMR back up each lot’s composition, but what our partners value most is how those numbers carry over into manageable, reproducible results in their own hands.

    Scalability always brings fresh challenges: heat management in iodination, more tricky work-ups on multi-kilogram charges, and the constant pressure to keep operational hazards under control. Solvents and reagents change, but the basics hold firm. By nailing down batchwise controls—avoiding side reactions, monitoring rates, confirming endpoint—our teams put out a product that stays within tight specifications for iodine content, moisture, and organic residues. We only push capacity once the data support it, preventing surprises in structure-activity investigations later down the research chain.

    Specifications That Shape Performance: Purity, Appearance, and Handling

    Each specification reflects hard-earned experience from customized projects across pharma and specialty markets. Ethyl 3-Iodobenzoate made in-house shows as a colorless to faintly yellow liquid, typically with purity exceeding 98% by area (GC), and water content kept beneath 0.5%. We’ve optimized the drying steps and storage to keep the product stable during both transit and storage, recognizing that slight moisture upticks or capsule leaks can mean a world of difference to those running moisture-sensitive couplings.

    Our certificates of analysis detail the key points: mass spectrum matches, critical impurities, and batch-dating for traceability. Our teams have scrapped entire intermediate batches before releasing a lot that didn’t meet specification—no batch moves without dual signoffs and full QC confirmation. That gives researchers confidence when direct halogen exchange, metalation, or other functionalization steps need a reliable input, not just “off-the-shelf” material with indeterminate history. Being present at every stage, from synthesis to shipment, brings this level of consistency.

    Using Ethyl 3-Iodobenzoate: What Sets It Apart?

    Many chemists ask what makes our Ethyl 3-Iodobenzoate preferable to familiar alternatives. The difference often emerges during actual reactions, not abstract properties. Iodobenzoates show markedly greater reactivity than their bromo or chloro analogues in metal-catalyzed couplings, leading to higher yields with less catalyst. This reactivity matters for projects scaling from gram to kilo—with iodide, introductions of new functional groups become more predictable, especially in cross-coupling pathways where byproduct formation is a constant risk. Reliability at scale gives our partners freedom to focus on new target structures, process optimizations, and cost savings.

    Compared to the methyl or tert-butyl esters, the ethyl ester balances reactivity, solubility, and downstream processing. Ethyl esters are easier to deprotect under basic or mild acid conditions, and avoid common pitfalls seen with more sterically hindered variants. Several long-standing clients have reported smoother chromatographic separation and cleaner analytical data when using our Ethyl 3-Iodobenzoate over methyl or propyl versions in their advanced API routes. These practical details only come to light through hands-on application, which is where a manufacturer’s direct perspective comes to bear.

    Meeting Today’s Demands: From R&D to Production

    Working in the chemical supply landscape, we see firsthand how priorities shift between discovery, process development, and full-scale production. Small-scale research often tolerates less rigorous control, but process chemists need a reproducible, single-source supplier to avoid recrystallization, purification, or batch blending on their end. We routinely work with clients to fit packaging to plant requirements, whether it’s sealed glass for milligram-scale work or bulk HDPE drums proofed for warehouse handling. Clear, sealed labeling and anti-tamper protection reflect our experience with multinational audits and the growing demands around traceability and regulatory compliance.

    Feedback from production teams indicates that not all ethyl benzoate iodides behave equally in reactors. Batch-dependent variations in color, odor, or solubility can point to residual metallic catalysts, traces of starting acid, or even minute differences in water content. Addressing these requires open dialogue—sharing chromatograms, offering process data, and even hosting onsite visits for critical customers who want to see operations firsthand. We’ve welcomed dozens of senior scientists and sourcing leads over the years, knowing that transparency wins long-term trust more than any brochure ever could.

    Turnaround speed marks another difference. Because we operate our own kiloliter reactors and manage inventory using real-time data, we answer most rush orders with minimal delay. Specialists at our labs troubleshoot issues as they arise, rather than bouncing technical questions to third-party vendors. For global projects requiring just-in-time supply, this level of control over timelines and purity becomes a deciding point.

    Addressing Quality and Regulatory Considerations

    Chemicals destined for regulated environments carry more scrutiny. Our documentation provides full batch reviews, impurity profiles, and, on request, more in-depth analysis such as residual solvent GC-MS or stability studies. Our production adheres to Good Manufacturing Practice principles where appropriate, with traceable logs for each drum or flask. Inspections by customer auditors highlight how secure plant access, segregated storage, and automation upgrades make real improvements compared to standard batch houses. Operator training, digital recordkeeping, and barcode-based systems we installed over the past decade have cut errors and increased confidence from long-term buyers.

    We also recognize how regulatory frameworks evolve. As more end-users seek substances for clinical or patent-protected work, provenance and documented quality claims move from comfort to necessity. Our experience in navigating submission requirements, from TSE/BSE statements to residual solvent screens, translates into less paperwork and faster review cycles for our clients. Whether supporting method development or validating cleaning procedures, experience with both European and US regulatory standards allows us to address auditor queries without delay.

    Environmental and Safety Commitments from the Manufacturing Floor

    Manufacturing halogenated intermediates brings unique environmental responsibilities, particularly with iodine. Years ago, we invested in closed-loop collection systems for spent iodine-containing waste. Recovered iodine gets purified and reused, cutting raw material costs and easing the load on local treatment systems. Our experience shows that good design—such as inerting vessel headspaces and using corrosion-resistant lining—pays off both in safety and in fewer product contamination incidents. These are not abstract points, but improvements that came straight from the lessons of earlier generations of production chemists.

    All plant operators go through annual hazardous materials handling courses, not because rules demand it but because accidents set progress back for everyone involved. Emphasis on spill containment, safe transfer, and real-time monitoring keeps both staff and environment protected. That kind of discipline shows up indirectly in product quality—when operators trust the line layouts and the gear, batch deviations and product losses decline sharply.

    Solving Real-World Challenges in Process Chemistry

    Partnering with researchers on route design, we often see “out of spec” lots pointed back to reliance on non-integrated suppliers or lack of batch history. With aromatic iodides, sensitivity to light, oxygen, and water means rapid degradation in warehousing or during transport unless shipping protocols stay dialed in. Working on hundreds of customer projects, most of the recurring delays were solved by custom packaging, cold-chain logistics, or just ensuring continuous communication as products passed through customs and storage facilities. Each improvement came from close scrutiny, not generic promises.

    Reactivity testing also brings out other distinctions. During transition-metal catalyzed syntheses, cleaner end products and fewer unwanted byproducts stem directly from minimizing carryover of potassium or sodium salts, peroxides, and stabilizers. We’ve adjusted quenching steps and secondary washes multiple times after trace residue impacted downstream reactions in a customer’s plant. Only a true manufacturer can field-test a new finish or drying protocol on a pilot plant scale and adapt it after client feedback. That cycle builds not only a better product but a more open partnership between supplier and end-user.

    Supporting Innovation and Reducing Risk for End-Users

    Ethyl 3-Iodobenzoate continues to prove its value in innovation pipelines for both established pharma blockbusters and emerging small-molecule candidates. We supply research teams aiming for novel anti-infectives or targeted crop protection agents who value the unique reactivity profile enabled by the meta-iodine substituent. The compound’s flexibility gives modularity to process routes and increases optionality during lead optimization. Where others see a standard intermediate, years in manufacture have taught us to view it as a key enabler for rapid exploratory chemistry.

    Whether clients pursue gram-scale medchem or multi-ton campaigns, unforeseen process variations introduce real risk. By leveraging in-house expertise built over decades, we deliver more than a drum of product. Our technical support team routinely runs small-scale mimic reactions, screens for problematic batch variances, and develops bespoke analytical protocols to align with customer endpoints. Researchers have credited our QC teams for catching microimpurities invisible on standard spot-checks that would later have derailed regulatory submissions or pilot plant trails.

    In a crowded field, these details matter. Too often, key intermediates arrive with missing documentation, ambiguous provenance, or variable specs. We refined our Ethyl 3-Iodobenzoate to take uncertainty out of the equation—bridging the gap between discovery and commercial manufacture with transparency, responsiveness, and a long-term perspective rooted in practical experience.

    Why Direct Manufacturing Experience Matters: A View from the Industry

    Drawing on decades of production and feedback cycles, we’ve seen how the journey from benzoic acid esterification to iodination and final purification accumulates small, critical insights. Cost optimizations mean little without stable, reproducible quality for those who design multi-step syntheses. By investing in real process control, regular audits, and ongoing dialogue with our technical partners, we have shaped a product that doesn’t just meet abstract specs but smooths the path for complex projects. This goes well beyond the usual “lab grade” or “reagent grade” claims seen from traders or repackagers.

    For clients who have grappled with everything from off-odors to inconsistent reactivity in coupled product lines, the difference a primary manufacturer brings becomes clear only after repeated use. Reliable supply chains enable predictable results. The knowledge transfer from plant floor to end-user laboratory, along with targeted support for each new application, forms a collaborative effort that extends beyond a simple transaction. By keeping full control from raw material sourcing through to sealed shipping boxes, we serve chemical innovators who refuse to leave critical steps to chance.

    Looking Ahead: Continuous Improvement and Customer Partnership

    Every fresh application or process tweak feeds back into our methods. Over time, this cycle creates a product whose value grows with each synthesized batch, every successful regulatory inspection, and each untroubled production campaign. As new chemistries emerge and project needs shift, our approach to manufacturing Ethyl 3-Iodobenzoate adapts—not through sweeping overhauls, but by integrating each new lesson into staff training, process control, and customer communication.

    In our experience, refining a specialty product like Ethyl 3-Iodobenzoate never quite ends. We see most advances stemming from close cooperation with users, not from isolated R&D. Whether it’s overcoming solubility issues in a new solvent, adapting trace impurity controls for fresh coupling variants, or devising unique shipment solutions for sensitive locations, hands-on involvement and open feedback loops prove their worth over and over again.

    We remain committed to strong manufacturing roots, responsive technical support, and living up to the trust that customers place in us as a direct producer. Every bottle, drum, and lab sample of Ethyl 3-Iodobenzoate carries that commitment, forged by shared effort and a drive for continuous betterment that keeps our industry moving forward.