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Benzyl 3-Bromopropyl Ether

    • Product Name Benzyl 3-Bromopropyl Ether
    • Alias 3-Bromopropyl benzyl ether
    • Einecs 'EINECS 412-120-5'
    • 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

    604334

    Chemical Name Benzyl 3-Bromopropyl Ether
    Cas Number 41121-08-6
    Molecular Formula C10H13BrO
    Molecular Weight 229.12 g/mol
    Appearance Colorless to pale yellow liquid
    Boiling Point 131-133 °C at 10 mmHg
    Density 1.31 g/cm³ at 25 °C
    Refractive Index 1.533-1.537
    Purity Typically ≥98%
    Solubility Insoluble in water; soluble in organic solvents

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

    Packing & Storage
    Packing Amber glass bottle, 100 grams, with a secure screw cap and tamper-evident seal; labeled with hazard warnings and product details.
    Shipping Benzyl 3-Bromopropyl Ether should be shipped in tightly sealed containers, protected from light and moisture. Use appropriate secondary containment and clearly label as a hazardous material. Ship under ambient conditions unless otherwise specified, and adhere to all local, national, and international regulations for transport of hazardous chemicals.
    Storage Benzyl 3-Bromopropyl Ether should be stored in a tightly sealed container in a cool, dry, well-ventilated area, away from sources of ignition, heat, and incompatible substances such as strong oxidizers. Protect from moisture and direct sunlight. Use only with proper ventilation and wear appropriate protective equipment when handling. Store in accordance with relevant chemical safety regulations.
    Application of Benzyl 3-Bromopropyl Ether

    Applications of Benzyl 3-Bromopropyl Ether in Industrial Manufacturing

    Benzyl 3-Bromopropyl Ether serves as a highly selective alkylating agent and intermediate in specialized industrial processes, enabling the synthesis of a variety of high-value chemicals. As a direct manufacturer, we focus on providing consistent, traceable quality for mission-critical downstream applications where regulatory compliance, process performance, and precise formulation are essential to our B2B partners.

    1. Pharmaceutical Intermediate Synthesis

    Benzyl 3-Bromopropyl Ether is widely employed in the synthesis of active pharmaceutical ingredient (API) intermediates, specifically for constructing ether and alkylated side chains in compounds such as antihypertensives and antiviral medicines. Controlled addition allows for repeatable reaction yields and trace impurity control, essential for GMP pharmaceutical production. Downstream manufacturers integrate our material during the etherification step to introduce defined benzyl-propyl moieties, vital for both process safety and final API integrity.

    Industry compliance standards

    • ICH Q7 Good Manufacturing Practice for Active Pharmaceutical Ingredients
    • USP–NF requirements for API intermediates
    • EU GMP Volume 4, Part II
    • REACH compliance for industrial use

    Typical usage ratio

    • 0.8–1.2 molar ratio relative to upstream nucleophile
    • Adjusted based on substrate reactivity and target yield in multi-stage batch synthesis

    Downstream process integration

    • Ether introduction in the nucleophilic substitution or Williamson synthesis step
    • Reaction conducted post-activation of core structure; subsequent purification by crystallization or chromatography

    Final product types

    • Antiviral drug intermediates
    • Beta-blocker intermediates
    • CNS agent side-chain fragments
    • Custom API scaffolds for clinical research

    2. Agrochemical Active Ingredient Manufacturing

    This material is relied upon for forming ether-bridged linkers in the synthesis of crop protection agents, particularly pyrethroid analogues and fungicide stability enhancers. It enters the process during the key synthesis of oxygenated bridge groups, determining the bioactivity and environmental persistence of the end formulation. Agrochemical companies depend on consistent batch purity and traceability for large-scale campaigns under GLP and global export requirements.

    Industry compliance standards

    • FAO/WHO Specifications for Plant Protection Products
    • ISO 9001:2015 for quality management
    • EPA FIFRA chemical registration (US)
    • REACH Annex II—Safety Data Sheet requirements (EU)

    Typical usage ratio

    • 3–6% w/w in targeted condensation reactions
    • Adjusted for crop protection efficacy and balance with other formulation reagents

    Downstream process integration

    • Incorporated in etherification phase, typically with aromatic alcohols under basic catalysis
    • Followed by distillation and fractionation for active component isolation

    Final product types

    • Insecticidal ether intermediates for pyrethroid derivatives
    • Fungicide pre-mixes for commercial crop protection
    • Stablilized herbicide formulations for export

    3. Specialty Polymer Modification

    Chemical manufacturers incorporate this ether as a co-monomer or as a functional end-group modifier in the production of specialty block copolymers and cross-linked resins. It enables precise control over polymer architecture, imparting enhanced solubility or targeted cross-linking points, particularly in advanced coatings and high-electrical-resistance materials. Polymer engineers integrate the material in the modification stages to ensure consistent chain termination and surface chemistry for high-performance molded goods or films.

    Industry compliance standards

    • ISO 9001:2015 for manufacturing and quality control
    • EU Regulation No. 10/2011 for polymer food contact materials (if applicable)
    • UL 94 safety standard for flammability of plastic materials
    • RoHS Directive (2011/65/EU) where electronics applications apply

    Typical usage ratio

    • 1.5–4% by total monomer weight in batch or continuous polymer modification
    • Adjusted for desired functional group density and mechanical properties

    Downstream process integration

    • Added during 2nd stage of polyaddition or post-polymerization modification
    • Integrated under inert atmosphere to prevent side reactions and ensure desired molecular weight distribution

    Final product types

    • Epoxy and polyurethane crosslinkers
    • Functionalized thermoplastic elastomers
    • High-dielectric polymer coatings
    • Custom copolymer resins for advanced composites

    4. Fine Chemical Building Block Supply

    Custom synthesis laboratories and fine chemical producers use this ether as a building block for manufacturing specialty intermediates—including compounds for fragrance fixatives, high-purity linkers, and protected alcohols. Its high reactivity under anhydrous conditions allows for the extension or modification of complex carbon skeletons, where traceability and specification compliance matter for downstream applications in sensitive manufacturing flows. Labs utilize our product for controlled alkylation or ether bond construction under specific regulatory and analytical regimes.

    Industry compliance standards

    • ISO 9001:2015 for fine and specialty chemical supply
    • GHS/CLP Regulation (EC) No 1272/2008 for labeling and classification
    • Responsible Care® program (global chemical safety initiative)
    • Client-specific analytical purity and trace impurity protocols

    Typical usage ratio

    • Stoichiometric (1:1) to 1.5-fold molar excess depending on reaction scale and purity requirements
    • Precision adjusted in situ for analytical and preparative scale synthesis

    Downstream process integration

    • Reactant for selective alkylation or etherification of aliphatic and aromatic substrates
    • Purification via vacuum distillation or phase separation tailored to sensitive downstream transformations

    Final product types

    • High-purity fine chemical intermediates
    • Fragrance and cosmetic raw materials
    • Protected alcohol precursors for synthesis routes
    • Complex ether-based specialty reagents
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    Certification & Compliance
    More Introduction

    Benzyl 3-Bromopropyl Ether: Practical Insights from the Manufacturer’s Floor

    Genuine Chemical Engineering Rooted in Daily Production

    Walking through our manufacturing facility each morning, we are reminded that every freshly synthesized batch of Benzyl 3-Bromopropyl Ether tells its own story. The hum of reactors, the measured pull of vacuum lines, technicians monitoring color and clarity—these become daily rituals. As a team working hands-on, we don’t just produce a chemical; we shape its future. Each lot of this ether carries our fingerprints, and because we witness its transformation from raw materials to finished product in real-time, we owe our customers accuracy and insight, not flashy adjectives or marketing promises. We prefer practical talk: what works, what lasts, and what sets this specialty ether apart from the generic labels and marketing claims scattered across the market.

    Molecular Craftsmanship: Seeing the Difference Up Close

    Benzyl 3-Bromopropyl Ether carries the model number C10H13BrO for us, shaped by the specific demands of our industrial synthesis route. It’s not just chemistry on paper; the molecular weight, consistency of bromine content, and purity levels we achieve matter in every real-world application. From our experience, customers in the fine chemical sector, pharmaceutical intermediates, and specialty polymer compounds often need detailed assurance—no unwanted residuals, no confusing variability lot to lot, and no unexplained discoloration. We’ve minimized those headaches in our shop through tight controls and regular spot checks, not endless shelf tests or “certifications” divorced from actual workflow. Every shift, our supervisors monitor the reaction progress and distillation cut, keeping the water content and acid value low—an effort that saves our collaborators hours of troubleshooting downstream.

    Physical Profile that Matches Application Demands

    Benzyl 3-Bromopropyl Ether looks clear and possesses a distinct, sharp odor characteristic of benzyl derivatives. This isn’t just a matter of aesthetics—it impacts workup steps, solvent exchanges, and physicochemical compatibility for a wide range of formulation processes. We produce it as a colorless to pale yellow liquid, with a controlled density and a boiling point finely tuned by fractional distillation. Our team learned early that unrefined materials, even from established sources, often show yellowing or precipitation when left too long in storage. By tightening our handling, filtering twice directly off the column, and using sealed, moisture-free packaging, our product maintains stability that lab techs appreciate. Feedback from customers reinforces this: a little extra care in the factory translates to far easier handling and dosing for researchers and process chemists.

    Why Care About Specifications?

    It’s easy to overlook specification tables. Inside the manufacturing bay, we see those numbers as daily hurdles instead of mere lines on a certificate of analysis. Water content must stay below 0.1% unless you like headaches in your next nucleophilic substitution. Acid value—the hidden detail lots of non-producers skip—directly influences shelf life and product compatibility, especially for pharma-grade uses or when blending into resin backbones. We've learned from a decade of direct troubleshooting that ignoring these may mean irritating phone calls from anxious customers asking why yields dropped. Our Q.C. lab can trace every lot back to the raw bromine shipment and the benzyl alcohol drum—no luck involved, just systematic records. For us, transparency starts with our own internal audits and records, not just what we hand over to regulatory agencies.

    The Role in Synthetic Strategy

    Benzyl 3-Bromopropyl Ether works as a powerful building block in a variety of organic syntheses. Its structure offers both benzyl and bromoalkyl reactivity, which opens doors for creative chemistry. Our regular customers range from global pharma giants refining new APIs to material science labs developing custom ion-exchange resins. The “ether” linkage in the molecule confers distinct solubility properties and ensures a latent functional handle in later steps. In our own development process, we repeatedly saw chemists select this compound specifically where directly using benzyl bromide or 3-bromopropanol caused side reactions or decomposition. By offering enhanced thermal and chemical stability, this ether steps in where others fail or require costly protection/deprotection strategies.

    Key Usage Scenarios from Real Project Work

    A core use is as an alkylating or etherifying agent. For example, in manufacturing specialty crown ethers or macrocycles, our material gives superior yield and purity compared to off-the-shelf alternatives. Customers working on new organometallic ligand scaffolds tell us our product’s tight control over halide content keeps their reaction rates predictable. In pharma R&D circles, the compound fills a niche as a protected intermediate during multi-step synthesis, where direct use of more reactive halides risks unwanted rearrangement. Over years of collaboration with peptide and oligonucleotide labs, we've observed our Benzyl 3-Bromopropyl Ether providing a reliable benzyl-protecting option for sensitive alcohol groups, with fewer side products than broader-chain analogues.

    In polymer science, feedback from technical teams underscores the benefit of using this molecule as a chain extender or modifying group in specialty resins. It offers easy activation of the propyl bromide moiety while the benzyl segment remains unreacted until late-stage processing. One notable instance: a partner working on anti-static surface coatings swapped to our grade after repeated problems with batch inconsistency from bulk suppliers. Even small batches with tighter controls not only solved their problem but led to a 20% yield increase in curing efficiency at lower temperature. These operational details matter far more in practical settings than any glossy specification sheet could advertise.

    Spotting the Real Differences: Not All Ethers Are Equal

    Some customers initially seek Benzyl 3-Bromopropyl Ether based on literature synthesis alone, believing it’s interchangeable with 1,3-dibromopropane, benzyl bromide, or 3-bromopropanol. Experience says otherwise. 1,3-dibromopropane substitutes in alkylation reactions with less selectivity, trailing higher side product content—most noticeable in scale-up kilo-lab runs. Benzyl bromide, popular and available, often brings higher volatility and toxicity risk, not to mention a tendency to over-alkylate, especially in crowded functional group environments. Spec-for-spec, Benzyl 3-Bromopropyl Ether integrates the best: reactivity without runaway side reactions, moderate handling precautions, and lower risk of accidental benzylation where not intended.

    Our in-house comparison trials showed that even small shifts in molecular structure—like swapping the benzyl for an alkyl group or shifting the bromo from the propyl to the benzyl moiety—cause dramatic changes in both reactivity and downstream behavior. Certain application-specific needs, such as the requirement for a clear, storable intermediate in progressive pharmaceutical synthesis, demand these nuanced differences. The ether bond here imparts notable hydrolytic stability, a favorite for clients storing intermediates for months without reporting degradation or off-odors. Relying only on supplier claims overlooks years of muscle memory from actual process lines—something we cultivate internally and share directly with partners and clients.

    Process Knowledge: The Path to Consistent Results

    Much of our advantage comes from investments in process understanding, not from purchasing more advanced reactors or issuing new certificates. It’s about short feedback loops within our factory. Routine maintenance of distillation lines, regular cartridge replacement in microfiltration set-ups, and qualified operators in each shift—these controls keep batch-to-batch variations less than 0.5%, an achievement reflected in fewer after-sale support calls and higher customer satisfaction. During troubleshooting, our chemists don’t hide behind forms; they often walk suppliers or research partners through actual run logs, and they’re honest about anything they catch during spot checks. We’ve traced minor off-odors in shipping barrels to inadequately rinsed pumps—lessons burned into our SOPs, not the next promotional brochure.

    Our strategy takes full account of how this product interacts with diverse feedstocks. Small differences—variations in precursor purity, ambient moisture, temperature swings mid-reaction—show up in rheology and color, which affect downstream use in synthetic schemes. We don’t treat these as routine background noise or fudge them behind vague promises of “high quality.” Revealing such process knowledge sometimes means losing easy sales to traders looking for the cheapest offgrade material. We’re content with that, knowing every returning client shares our appreciation for predictability—something beyond words, proven by years of repeated, open feedback.

    Building End-User Trust: From Technical Team to Workbenches Worldwide

    Engineers and chemists buying Benzyl 3-Bromopropyl Ether from our production lines often manage bench-scale projects turning into commercial-scale runs. The material we send out shapes their own yields, timelines, and cost forecasts. Some clients adapt their synthetic plans to leverage the unique reactivity of our product, while others optimize downstream workups based on its stability profile. We answer detailed questions on solubility in nonpolar and polar organic solvents, possible residuals, and exclusion of certain catalytic trace metals. These are not “nice-to-know” topics for our partners, but core concerns that either improve or threaten their bottom line. Our R&D staff regularly joins discussion calls with clients’ technical teams, aiming to diagnose, support, and learn from their successes and pain points.

    Every improvement—even those as humble as a change in drum lining material—emerged from careful technical discussions about loss on storage, migration, or compatibility in customer reactors. As we see it, the path to reliable chemicals lies in confronting real-world application problems with a factory mindset. If a run needs tweaking for a client’s process, we engage in hands-on requalification, not brush-off excuses or ambiguous suggestions. Regular in-person audits and shared troubleshooting sharpen both sides’ understanding, ensuring the material fits the customer’s role, not just passing internal technical specs or regulatory compliance hurdles.

    Global Supply Chain Realities and the Manufacturer’s Advantage

    With disruptions across chemical supply lines making headlines, many of our new customers come to us after hitting barriers—late shipments, inconsistent batches, or mislabelled intermediates. We see this as a result of distancing producers from end users. By controlling the process in-house, from raw materials to finished packaging, our facility bridges the gap between theoretical value and actionable certainty. Our stockrooms run on actual projections built from conversations with longtime partners, not only forecasts from sales teams. This advantage turns up again in logistics: custom packaging on request, sealed drums suited to sea or air transit, real-time batch traceability, and optional stock reservation keep projects on track and prevent line-down events.

    On compliance, we take regulations seriously. Instead of box-checking, our compliance workflow involves thorough batch documentation and regular third-party audits, where inspectors walk our floor and sample directly from live production batches. Our team appreciates that many customers require documentation for sustainability, traceability, or safety audits in their own operations. By laying out the full journey of each lot—inputs, controls, shipments—we help partners satisfy their own end-clients’ requests with real data, not assumptions or incomplete reports.

    Solving for Real Needs: Continuous Feedback and Product Development

    Every month, feedback from partners around the world finds its way to our process improvement meetings. For example, requests for larger packaging volumes prompted us to expand our filling line capabilities by adding new 200-liter drum filling stations with specialized inert gas blanketing to preserve purity for export. Several biotech clients mentioned trouble with dosing accuracy using previous suppliers’ uneven viscosity batches. Our operations team addressed this not by changing the base molecule, but by refining our distillation cut points and adding a secondary filtration step—resulting in smoother, more consistent liquid flow even during extended pipetting or bottling sessions.

    Another regular request involved lowering trace residuals—sulphur, halogens, and heavy metals—below standard thresholds for advanced electronic and medical segment users. Instead of dismissing these quality drives as “special requests,” we incorporated extra polishing steps and revalidated our raw material sources. The new analytical regime led to more rigorous controls, teaching both our staff and our clients how technical discipline brings measurable benefits beyond paperwork or test reports. Being present at every production step enables us to explain these refinements in granular detail to every customer who asks, without hesitation.

    Continuous Learning: Staying Ahead in a Moving Industry

    Our production team keeps up with the latest advances in synthetic organic chemistry, both for in-house projects and to support our clients’ evolving needs. Whether reading literature on electrolyte development, new polymerization techniques, or improved protocols for tandem alkylation/reduction, we sharpen our own approach. We have invested in a compact pilot lab directly within the factory, so improvements suggested on the factory floor pass directly to small-scale validation and, if successful, full production. Putting academic theory to the test under live process constraints helps us challenge assumptions, weed out impractical fads, and endorse the practices that truly make a difference at the operator’s bench or in a client’s pilot plant. Learning doesn’t stop at science; it extends to supply chain management, green chemistry, and even packaging design, always driven by real user challenges.

    A Word to End-Users: What Reliability Feels Like

    In the daily flow of manufacturing, we define reliability not by what we promise, but by what arrives in our clients’ hands. If a batch arrives at a hospital compounding lab, an R&D center, or a specialty materials pilot plant, we expect it to work as planned—no surprises. It’s easy to promise specifications on a website; it takes harder work to ensure that, six months down the line, a stored drum still delivers on its original clarity, odor, and reactivity. If a project leader flags a variance or expects a tweak, we talk through real-time solutions, not scripted answers. The open exchange with users at every stage—purchasing, inventory, application—shapes new improvements and inspires us to stretch for even higher reliability. That is the unseen handshake we share with every partner.

    Looking Forward: Fewer Claims, More Substance

    The world of specialty chemicals such as Benzyl 3-Bromopropyl Ether is filled with noise—layers of claims, datasheets, and sometimes less-than-transparent sourcing. Over decades, we have learned to tune that out in favor of direct action. Every liter, kilo, or ton shipped directly shapes another research breakthrough, a regulatory step, or an end-use application people may rely on for years. We measure progress in reduced troubleshooting calls, fewer product holds, faster downstream workflow, and most importantly, in the mutual trust built between our team and the chemists and engineers who depend on us.

    For new partners considering Benzyl 3-Bromopropyl Ether, our doors—both literal and figurative—remain open for technical discussions, real-world application support, and feedback loops that inform tomorrow’s production standards. We know it’s easy to browse for a chemical; it’s far harder to choose a supply partner ready to match your standards with their daily actions. Our product stands ready, shaped by years of hands-on improvements and a company culture that values collaboration over empty slogans.