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Ethyl 2-Bromobenzoate

    • Product Name Ethyl 2-Bromobenzoate
    • Alias Benzeneacetic acid, alpha-bromo-, ethyl ester
    • Einecs 217-880-3
    • 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

    472942

    Chemical Name Ethyl 2-Bromobenzoate
    Cas Number 610-02-4
    Molecular Formula C9H9BrO2
    Molecular Weight 229.07 g/mol
    Appearance Colorless to pale yellow liquid
    Boiling Point 263-265°C
    Melting Point -10°C
    Density 1.468 g/cm³ at 25°C
    Refractive Index 1.547
    Purity Typically ≥98%
    Smiles CCOC(=O)C1=CC=CC=C1Br

    As an accredited Ethyl 2-Bromobenzoate factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing Ethyl 2-Bromobenzoate, 100g, supplied in a tightly sealed amber glass bottle with a tamper-evident cap, labeled for laboratory use.
    Shipping Ethyl 2-Bromobenzoate is typically shipped in tightly sealed containers to prevent leaks and contamination. It should be packaged according to local and international regulations for hazardous materials, transported in a cool, dry environment, and clearly labeled. Handle with care and avoid exposure to heat, open flames, and strong oxidizing agents during shipping.
    Storage **Ethyl 2-bromobenzoate** should be stored in a tightly sealed container, away from moisture and incompatible substances such as strong oxidizers. Keep it in a cool, dry, well-ventilated area, preferably in a flammable chemical storage cabinet. Protect from direct sunlight and sources of ignition. Clearly label the container and follow all applicable local, state, and federal guidelines for chemical storage.
    Application of Ethyl 2-Bromobenzoate

    Applications of Ethyl 2-Bromobenzoate in Industrial Manufacturing

    Ethyl 2-Bromobenzoate, as produced with controlled purity and batch consistency, serves differentiated functional roles in several advanced chemical supply chains. Our manufacturing expertise supports demanding integration requirements in pharmaceuticals, agrochemical intermediates, specialty chemical production, and performance material industries.

    1. Pharmaceutical Intermediate Synthesis

    Pharmaceutical developers use this material for targeted bromination during the production of custom benzoic acid derivatives. It enters syntheses for APIs where precise halogen substitution improves molecular reactivity. Applications include anticonvulsants, anti-inflammatories, and certain oncology pipeline molecules. Regulatory compliance requires complete analytical traceability and residue controls from our supply onward.

    Industry compliance standards

    • ICH Q7 Good Manufacturing Practice (API intermediate requirements)
    • USP/NF monograph compendia (if used in U.S.-marketed medications)
    • European Pharmacopoeia 10.0 purity and identity testing
    • FDA 21 CFR Part 211 cGMP for process documentation

    Typical usage ratio

    • 5% to 20% by molar ratio relative to total substrate, based on API synthetic pathway
    • Usage level set according to target compound route and scale-up yield

    Downstream process integration

    • Added during early-phase aryl bromination
    • Involved in ester-transformation and hydrolysis steps as required by API structure
    • Used under nitrogen or argon to prevent side-reactions
    • Extensively monitored for residual solvent and byproducts post-reaction

    Final product types

    • Benzamide and substituted benzoic acid derivatives
    • API intermediates for central nervous system drug classes
    • Custom fine chemical precursors for contract pharmaceutical manufacturing

    2. Agrochemical Active Ingredient Manufacturing

    Agricultural chemical plants routinely choose Ethyl 2-Bromobenzoate for C–Br bond placement in selective herbicide and pesticide synthesis. It provides feedstock for downstream transformations yielding functionalized benzoates with targeted biological activity. R&D and production teams rely on batch-to-batch reproducibility and strictly controlled impurity profiles to support active ingredient registrations in major markets.

    Industry compliance standards

    • ISO 9001:2015 quality management systems for chemical raw material supply
    • China GB/T 19001 agrochemical basic material standardization
    • EU REACH registration and safety compliance for environmental handling
    • FAO/WHO specification guidelines for technical agricultural chemicals

    Typical usage ratio

    • 8% to 25% on a molar basis, depending on crop protection compound family
    • Adjusted upward in pilot-lab scale for novel active design routes

    Downstream process integration

    • Integrated early in molecule assembly for halogenated benzoic acid analogs
    • Used in the alkylation or esterification phase, preceding final molecular cyclization
    • Followed by solvent extraction and phase purification
    • QC teams monitor residuals for regulatory dossier QA/QC

    Final product types

    • Herbicide intermediates (e.g., benzoate-based mode-of-action compounds)
    • Fungicide and insecticide actives for commercial agro-formulation
    • Custom pre-mix technical materials for regional agrochemical blenders

    3. Liquid Crystal Material Precursor Production

    Manufacturers in the electronics sector use this compound to generate halogenated building blocks for complex liquid crystal materials. These halogenated benzoates alter mesophase behavior and enhance molecular alignment. Specificity of substitution is essential during synthesis to ensure optical and thermal characteristics within TFT-LCD and OLED panel assemblies.

    Industry compliance standards

    • ISO 14001:2015 Environmental Management for specialty material plants
    • RoHS Directive (2011/65/EU) on restriction of hazardous substances in electronics
    • IEC 62474 material data reporting for display material supply chains
    • Custom private QC specifications per Asian electronics integrators

    Typical usage ratio

    • 12% to 28% by mole in complex synthesis of biphenyl or phenylbenzoate liquid crystal bases
    • Usage depends on end-use panel application (e.g., high-performance or standard LCDs)

    Downstream process integration

    • Reacted as core precursor in halogen-exchange to synthesize liquid crystal monomers
    • Often introduced before coupling reactions to preserve orientation
    • Integrated process monitoring ensures absence of residual halide contamination
    • Final purification includes fractional distillation

    Final product types

    • Biphenyl and terphenyl benzoate liquid crystal monomers
    • Display-grade liquid crystal blends for TFT and OLED panels
    • Optically active components for advanced display manufacturing

    4. Synthesis of Specialty Aromatic Esters

    Producers of high-purity aromatic esters rely on our material for customized halogenation to introduce unique functional groups. These specialty esters serve in plasticizer manufacturing, high-stability lubricants, and performance coating additives. Maintaining contaminant control throughout halogenation and esterification steps is critical for consistent quality in downstream blending and compounding.

    Industry compliance standards

    • REACH Annex XVII for industrial aromatic compounds
    • OECD Good Laboratory Practice for specialty chemical manufacturing data
    • Japanese Chemical Substances Control Law listing (KASHIN-HOU)
    • In-house third-party analytical verification for export markets

    Typical usage ratio

    • 10% to 18% by mole in specialty esterification reactions
    • Exact ratio determined by functional group density in target molecule

    Downstream process integration

    • Charged into reactor with alcohol or acid partners as first step in aromatic esterification
    • Enters halogenation phase under controlled temperature to prevent polysubstitution
    • Product subjected to vacuum stripping for volatile removal
    • QC release follows gas chromatography-mass spectrometry residue checking

    Final product types

    • Custom aromatic esters for plasticizers in high-flex PVC and PU applications
    • Halogen-functional lubricants for extreme pressure environments
    • Additives for resin and ink formulations requiring enhanced chemical resistance

    5. Fine Chemical Intermediate for Dyes and Pigments

    Colorant and pigment manufacturers employ this compound for constructing complex aromatic frameworks in azo and anthraquinone dye synthesis. Controlled halogen introduction enables production of high-stability colorants with specialty hue and fastness characteristics for textile, leather, and industrial pigment applications. Purity and trace analysis data ensure smooth regulatory qualification for global markets.

    Industry compliance standards

    • EN 71-3 safety standard for colorants in toys and textiles
    • Global colorant ecolabel systems (e.g., Bluesign, GOTS for organic textiles)
    • ISO 9001:2015 documentation for material traceability in colorant synthesis
    • REACH compliance for registered pigment intermediates

    Typical usage ratio

    • 6% to 15% of total batch input, depending on target pigment chromophore structure
    • Adjusted for color intensity and substitution degree

    Downstream process integration

    • Participates in aryl bromination before introduction of coupling components
    • Enters diazotization or condensation reactions as determined by pigment type
    • Intermediates purified by recrystallization or liquid-liquid extraction
    • End-product tested for light, solvent, and wash fastness

    Final product types

    • Azo and anthraquinone dyes for textile printing and coloration
    • High-performance organic pigments for coatings and plastics
    • Colorants for specialized inkjet and industrial printing markets
    Free Quote

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    Certification & Compliance
    More Introduction

    Ethyl 2-Bromobenzoate: A Closer Look from the Manufacturer's Bench

    Introduction: Meeting Real Lab Needs

    Ethyl 2-Bromobenzoate stands out in our lineup because we know what demands go into precision organic synthesis, research, and new product development. Our facility produces this compound with the experience that comes from years of hands-on chemical manufacturing, where consistency, purity, and reliability are not only goals but daily expectations. The material flows from our reactors to your bench without surprises—just the kind of results that serious chemists require.

    Model and Specifications from Direct Production

    Years spent optimizing our process showed us that small variations can create real headaches in downstream reactions. So our Ethyl 2-Bromobenzoate follows a tight spec for purity, typically above 99%. We prioritize clear, nearly colorless liquid, free from trace acid or other halides that can disrupt selectivity in arylation, Grignard, or Suzuki coupling protocols. Most of our lots reach GC purities of 99.2-99.5%. Water content stays controlled under 0.2%, typically even lower once distillation under reduced pressure is complete.

    We ship Ethyl 2-Bromobenzoate as a bulk liquid in drums or in securely capped amber glass for smaller scale needs. Our internal QA, developed on-site, checks by NMR and mass spectrometry every time. Over the years customers have pointed out how much trouble low-grade or variable material creates. Contaminants like unreacted benzoic acid, brominated side products, or traces from solvent recovery can derail multi-step synthesis, so we put effort into making sure you don’t waste time troubleshooting avoidable inconsistencies.

    End Uses from Our Experience on the Plant Floor

    Anyone dealing with functionalized benzoic acid esters knows Ethyl 2-Bromobenzoate occupies a unique spot. From our end, bulk buyers mostly purchase for pharmaceutical intermediates, particularly in early-stage research or process scale-up. It serves as a bromine source for substitution chemistry, letting chemists introduce specific functional groups to the aromatic ring. In addition, customers in materials science or flavor and fragrance development ask for our product when they need reliable yields in specialty syntheses shaped by the electronic effects of ortho bromine substitution.

    The reactivity of the ortho bromine enables efficient cross-coupling chemistry; downstream, it helps create custom ligands, UV stabilizers, and advanced intermediates. If you’ve run palladium-catalyzed couplings, you likely know the frustration of poor conversion rates from trace impurities. Our QC processes were built to tackle just that: we analyze not from impersonal batch criteria but from experience learned by troubleshooting from the user’s perspective.

    For academic groups, research institutes, and startup pharma, experiments often push boundaries with limited budgets and time. They return to us when their work hinges on predictable baseline materials—no failed runs due to overlooked micro-impurities, no batch recertification crises. We keep our analytics transparent. Customers can always request spectra: we have no interest in holding back data, and our own technical support center knows the risky outcomes when synthesis partners are left in the dark.

    What Sets Our Ethyl 2-Bromobenzoate Apart

    Over the last decade, requests poured in for higher transparency and fewer supply interruptions. Standard suppliers often farm material out to third parties, leading to bottle-to-bottle differences and frustration for those running precise research. As the original chemical producer, we retain control over every step, from raw material sourcing through finished QC.

    Some commercial grades on the market recycle old solvent, mix in stabilizers, or allow more leeway on acid or water residue. We prioritise grades that remain clean under light, stable in sealed, dry conditions for over a year. Stability assessments conducted by our own chemists have demonstrated retention of purity beyond twelve months under proper storage, so long as caps stay tight and the environment remains dry.

    Direct control gives us the flexibility to accommodate special requirements—higher analytical thresholds, unusual packaging, rush orders, or customer-driven specifications for related impurities. Open communication with synthetic chemists, not just procurement offices, guides our process tweaks. Where resellers might lack context for why a percentage point matters, we witness how subtle purity improvements raise yields and reduce side reactions.

    Other derivatives such as methyl 2-bromobenzoate or simple benzoic acid present different reactivity and solubility profiles—some hydrolyze more quickly, others lack the right activation for jumps into biaryl or diaryl ether syntheses. Many customers have learned the hard way that swapping in cheaper brominated benzoates throws off reaction timescales, crystallization profiles, or even compliance with regulatory tox specifications.

    Real-World Challenges in Manufacturing

    Running a bromination plant isn’t a set-it-and-forget-it operation. Bromine requires careful handling, ventilation, and monitoring for operator safety. Our reactors operate in controlled systems with constant temperature oversight, and gas detection never leaves the hands of new operators. Maintenance comes before production targets; corroded seals or worn glassware open the door to cross-contamination and impurity formation.

    We dedicated years to fine-tuning each stage of the synthesis. Early trials in the process exposed how exotherms during bromination can trigger unwanted side reactions—over-bromination, ortho-to-para migration, or ether cleavage if solvents and temperature fail to stay in check. Operators must understand the “feel” of the process, not just the readout on a display screen. Our batch records reflect more than numbers—they’re thoughtful logs by chemists on-site, not just templates filled out after the fact.

    Solvent use raises cost and sustainability concerns. We recover and recycle solvents wherever possible, limiting waste streams that can impact regulatory compliance and plant safety. Ethanol, commonly used as a medium in benzoic acid derivatization, is recycled directly in-house, undergoing distillation, drying, and purity checks before rejoining production. The pressure to cut operating costs never beats our core value: you lose more in the long run by sacrificing clean chemistry for short-term savings.

    Traceability, Transparency, and Consistent Supply

    Our plant operates with a full chain-of-custody record for Ethyl 2-Bromobenzoate. Reactant sources, batch operators, anomaly logs, even weather events that might affect process temperatures—all of this gets flagged and reviewed. Real traceability means nothing is hidden down the supply line. This approach helped us avoid major disruptions even during global transport crises, with onsite storage and responsible backup supplies letting us keep our word to long-term partners.

    Transparency stretches beyond paperwork. Every lot comes with analytical data on hand—not a selectively edited certificate, but full raw readings. Researchers have asked for access to historic production data to track results against sample variability. We deliver these records because trust is built by sharing facts, not slogans or generic product pitches.

    Reliability depends as much on process discipline as it does on technical know-how. We set aside inventory to weather fluctuations in raw materials or sudden regulatory changes. To deal with upswings in demand, we arrange for increased shift coverage rather than diluting our quality through hasty outsourcing. This keeps our supply chain lean, direct, and responsive to technical questions—real answers, not delays relayed between distributors.

    Supporting Specialty Applications

    Medicinal chemists often approach us with projects requiring downstream transformations of Ethyl 2-Bromobenzoate into specialty carboxylic acids, anilines, or ether derivatives. Having run the reactions ourselves, we ship product that brings confidence under real-world conditions, whether in heated reactors or during slow, multi-step synthesis campaigns. In agroscience and advanced polymers, users select this material because the ortho bromine resists harsh hydrolytic conditions, outlasting less sturdy aromatic esters.

    Academic groups cite the clarity and completeness of our analysis versus generic supply products, noting easier reproducibility in kinetic studies. Grants and lab budgets face enough pressure; variability from raw starting materials only amplifies wasted effort. Every academic pilot run, often under tight funding and timeline, benefits from material that behaves predictably batch to batch.

    Industrial buyers tell us that regulatory compliance issues caused by off-spec material bring legal headaches, possible requalification costs, or the dreaded standstill as new suppliers enter a validation process. Because our document packages are rooted in first-hand manufacturing records, audits flow smoothly. Our technical staff fields questions directly, not through layers of account management or distributor scripts.

    Responding to Industry Shifts and Regulatory Pressures

    The global chemical industry shifted toward greener processes and tighter specifications. We saw regulations tighten, especially in Europe and North America, demanding traceability and control over even minor byproducts. Our own plant adapted with these trends—installing inline monitoring, investing in more robust waste containment, and documenting down to individual operator sign-offs. This helps both us and our buyers stay aligned with international standards, reducing surprises from inspections or last-minute compliance changes.

    Reducing the environmental impact from brominated intermediates means investing in neutralization technology, safer handling, and employee training. Every year, our plant audits its emissions, waste flows, and solvent recovery rates. Not only does this reduce costs from potential compliance breaches, it keeps our operation sustainable over the long run, protecting workers and the communities where we operate. Customers benefit from knowing their material comes from a producer who addresses, not sidesteps, evolving environmental expectations.

    Practical Insights for Handling and Storage

    Years of filling, shipping, and storing Ethyl 2-Bromobenzoate showed us what works and what causes trouble down the line. Liquid leaks result from cheap packaging, especially in transit across humid or hot climates. Only top-quality amber glass or lined steel avoids photolysis and material breakdown. Improperly tightened caps or allow air ingress, spurring hydrolysis and leading to chalky precipitates or compromised assay results. In our own storage, we keep product cool, dry, and away from oxidizing substances.

    We routinely update storage guidance—not based on outdated handbooks but on real incidents and continuous plant learnings. For customers managing large inventory, we encourage them to rotate stock within a year wherever conditions make shelf-life difficult to guarantee. If unexpected issues crop up—unusual odors, minor turbidity, non-standard retention times in analysis—our support desk investigates with you, not just pointing to generic Q&A files.

    Comparisons and Choosing the Right Material

    From a manufacturer’s point of view, the choice between Ethyl 2-Bromobenzoate and related esters comes down to reaction design. The ethyl ester group confers better hydrolytic stability compared to methyl analogs. It dissolves efficiently in a wide range of organic solvents, including THF, DCM, and toluene, making it versatile for transition metal catalysis and stepwise aromatic derivatizations. In contrast, isopropyl or benzyl esters, though sometimes cheaper, often introduce steric hindrance or slower reactivity.

    Some competitors blend in stabilizers to extend shelf-life, but these add-ons can skew sensitive analytical results at ppm levels. Third-party brokers may consolidate batches, mixing older material with new—a practice we avoid entirely. Our buyers know each lot matches the specifications they received the last time, without detective work to decipher a material’s origin. Inconsistent product means more hours spent in lab troubleshooting, not on meaningful research or commercial progress.

    Bench chemists who value consistency don’t just look at price and purity figures—they care deeply about the error bars from real-world repeat runs. As direct producers, we see this firsthand every time a technical query comes in about solvent compatibility, non-standard reactors, or specialized downstream handling. Because we run these processes ourselves, advice from our team is field-tested, not cobbled together from manual entries.

    Ongoing Development and Feedback Loops

    We never claim to have perfected chemical manufacturing; new insights emerge every year as customers push our products into fresh territory or under more demanding analytical scrutiny. Feedback loops since our early days have shown that continual adjustment brings the best results. Sometimes a customer’s failed batch turns up a trace impurity or solvent interaction that might have gone unnoticed. In those cases, technical staff work through the root cause analysis shoulder to shoulder with the end-user.

    New tooling, digital tracking, and smarter analytics keep raising our internal standards, whether in tightening GC retention windows, finding new ways to package with less headspace, or developing faster analytical cross-checks against uncommon byproducts. With growing global demand, we built in scalable capacity—no last-minute sourcing from third-party warehouses—which helps us prepare for spikes in both demand and regulatory scrutiny.

    Continuous investment in plant upgrades, operator training, and technical partnerships brings value far beyond what appears in a simple product listing. Behind each shipment of Ethyl 2-Bromobenzoate stands a team invested not only in the molecule but also in the science and safety you rely upon. Buyers gain, not abstract assurance, but years of accumulated know-how from ongoing process improvements.

    Final Perspective: Trusted Through Practice

    Ethyl 2-Bromobenzoate leaves our plant with the same care that built our reputation over decades in the chemical sector. Modern production doesn’t just mean high specs on paper; it means producers who engage, adapt, and maintain open communication well after the shipment leaves the dock.

    From strict reaction monitoring and raw material selection, through careful handling, QA check-in, and transparent data sharing, each step matters. We’ve learned these lessons not from third-hand feedback, but from years working alongside researchers, process chemists, and industrial buyers who shape each new generation of specialty applications.

    Those searching for Ethyl 2-Bromobenzoate that consistently delivers—regardless of scale—gain more than just a compound. They find a partner who values clarity, reliability, and real-world insight, grounded firmly in the realities of modern chemical manufacturing and continual improvement.