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8-Bromomethylquinoline

    • Product Name 8-Bromomethylquinoline
    • Alias 8-(Bromomethyl)quinoline
    • Einecs 222-592-0
    • 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
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    Specifications

    HS Code

    253124

    Productname 8-Bromomethylquinoline
    Casnumber 23817-42-1
    Molecularformula C10H8BrN
    Molecularweight 222.08
    Appearance White to off-white solid
    Purity Typically ≥98%
    Meltingpoint 56-58°C
    Solubility Soluble in organic solvents such as DMSO, chloroform, and dichloromethane
    Density 1.57 g/cm³ (approximate)
    Storagetemperature Store at 2-8°C
    Smiles Brc1cccc2cccnc12
    Inchikey BPTCSMPAJKKQHF-UHFFFAOYSA-N

    As an accredited 8-Bromomethylquinoline factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

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    Application of 8-Bromomethylquinoline

    Applications of 8-Bromomethylquinoline in Industrial Manufacturing

    8-Bromomethylquinoline serves as a precision intermediate in critical chemical syntheses, supplying selective reactivity that underpins the production of specialized downstream compounds. We support industrial customers with rigorous lot control, technical guidance, and detailed Certificate of Analysis documentation to meet both regulatory and production demands. Below, we outline targeted applications in four established sectors relying on this intermediate.

    1. Pharmaceutical Intermediate for Anti-Infective Drug Synthesis

    Our 8-bromomethylquinoline is employed by pharmaceutical API manufacturers specializing in the development of anti-infective and antiparasitic agents, such as quinoline-based derivatives. Its halomethyl group allows for site-specific attachment in the construction of core bioactive structures. Customers typically utilize this material during the lateral chain introduction step, followed by cyclization and deprotection stages, all under strict GMP and validation regimens.

    Industry compliance standards

    • ICH Q7: Good Manufacturing Practice for Active Pharmaceutical Ingredients
    • EU EudraLex Volume 4: GMP requirements for medicinal APIs
    • United States Pharmacopeia (USP) general chapter guidelines for synthesis intermediates
    • Relevant regional DMFs and ANDA submissions

    Typical usage ratio

    • 0.5–1.2 molar equivalents as core-building block, adjusted according to targeted end-compound and reaction yield goals

    Downstream process integration

    • Introduced post-core scaffold formation via nucleophilic substitution in a controlled batch reactor or flow system; followed by amination or reduction depending on molecule design

    Final product types

    • API such as chloroquine derivatives and newer quinoline-based antimicrobials
    • Regulated drug intermediates for finished medicinal products

    2. Agrochemical Synthesis for Crop Protection Agents

    Major agrochemical manufacturers deploy our material for constructing nitrogen-containing heterocyclic scaffolds used in selective pesticides and fungicides. The reactivity of the bromomethyl moiety enables late-stage functionalization, streamlining industrial production of actives with improved bioavailability for crop protection. These production lines align closely with REACH and national crop chemical manufacturing codes.

    Industry compliance standards

    • REACH (EC 1907/2006) Registration for substances manufactured/imported in the EU
    • FAO/WHO Specifications and Codes of Practice for Pesticides
    • ISO 9001:2015 certified quality management for agrochemical intermediates
    • National and regional regulatory dossiers for new active substance approval

    Typical usage ratio

    • 0.2–0.8 molar equivalents, dependent on chain length and desired substitution degree for active ingredient design

    Downstream process integration

    • Engaged during heterocycle functionalization, after initial skeleton assembly; utilized primarily in halogenation and direct alkylation steps prior to formulation

    Final product types

    • N-quinolinyl pesticides and fungicidal active substances
    • Technical-grade crop protection liquid and powder formulations

    3. Material Science: Precursors for Specialty Dyes and Pigments

    Specialty dye and pigment manufacturers use this intermediate to create permanent colorants for plastics and performance coatings. The compound acts as a key precursor in the synthesis of quinoline-based dyes, which offer enhanced photostability and solvent resistance. Large-scale production lines require consistent material quality, as color uniformity depends on precise substitution at the quinoline nucleus.

    Industry compliance standards

    • ISO 9001:2015 for specialty chemicals
    • OEKO-TEX® Standard 100 where dyes are used in textiles
    • EN 71-3 for pigment safety in surface coatings and toys
    • Industrial environmental compliance (e.g., VOC limits for coatings per EPA regulation)

    Typical usage ratio

    • 12–25% by weight in target batch, adjusted for targeted intensity and hue control in the dye synthesis process

    Downstream process integration

    • Added as a functional nucleophile precursor during the aromatic condensation and ring-closing steps of dye intermediate production; downstream sulfonation or metallation carried out for desired pigment spec

    Final product types

    • Quinoline-based disperse and acid dyes for plastics/textiles
    • Solvent-stable pigments used in automotive and architectural coatings

    4. Electronic Chemicals: Synthesis of Heterocyclic Ligands for Catalysts

    Producers of advanced electronic materials rely on this compound as a building block in the construction of custom heterocyclic ligands, which play a key role in organometallic catalysts and photonic device manufacturing. This application requires absolute purity and batch uniformity, as trace impurities can alter electronic and catalytic performance. Customers use our material particularly for nitrogen donor ligand frameworks, directly impacting finished product efficacy.

    Industry compliance standards

    • IECQ QC 080000: IECQ HSPM Hazardous Substance Process Management System
    • RoHS Directive 2011/65/EU for electronics-related chemicals
    • SEMI S2 for equipment and process chemical use in semiconductor industry
    • ISO 14001:2015 for environmental management during production

    Typical usage ratio

    • 0.1–0.4 molar equivalents per batch, titrated for stoichiometric control in ligand assembly

    Downstream process integration

    • Enter as nucleophilic partner in heteroaromatic coupling under inert atmosphere; subsequent metalation and purification yield the final organometallic ligand complex

    Final product types

    • Heterocyclic ligand systems for homogeneous catalysis in fine chemicals and pharma synthesis
    • Complexes used in electroluminescent and optoelectronic device layers
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    Certification & Compliance
    More Introduction

    Introducing 8-Bromomethylquinoline: A Practical Tool for Modern Chemistry

    Understanding 8-Bromomethylquinoline

    Getting to know a new chemical compound can feel a bit like learning the ins and outs of a car before a long road trip. Some compounds sit in every lab’s toolbox, but a select few stand out because they tackle specific challenges and open doors to new approaches. 8-Bromomethylquinoline fits that bill. At first glance, it’s the brominated methyl derivative of quinoline, and that simple modification gifts it with fresh reactivity and real-world applications, both in industrial laboratories and academic benches.

    The Nuts and Bolts: What Sets This Compound Apart

    Chemicals come in all shapes and sizes, offering endless variety. You have your solvents, your reagents, and then those specialized building blocks that seem to sit on dusty shelves until the right synthesis project comes along. With 8-Bromomethylquinoline, the value lies in that unique combination of a quinoline ring fused to a reactive bromomethyl group. You get the aromatic stability and versatile skeleton of quinoline, a trusted scaffold in medicinal chemistry, plus the reactivity of a benzylic-like bromide. Purely based on its molecular architecture, this compound opens possibilities for targeted modifications that are hard to pull off with parent quinoline or other brominated derivatives.

    Pure 8-Bromomethylquinoline falls as a crystalline solid at room temperature, usually with a pale color. It feels familiar to those who have worked with similar halomethyl aromatics. Thinking back to my early days handling reactive methylated aromatics, you could always predict an alkyl bromide would bring both the thrill of fast reactions and the importance of careful planning. Chemical safety goes beyond paperwork; one mistake during a Grignard reaction or in a heated flask, and those lessons stick with you. The solid form of 8-Bromomethylquinoline stores neatly in amber glass under a dry atmosphere – a small but important step that speaks to its preference for stability when away from sunlight and moisture.

    Real-World Use Cases: Where 8-Bromomethylquinoline Shines

    Chemists who know their way around synthetic schemes see value where others see routine. Having a ready bromomethyl group on a quinoline ring gives a chemist a launchpad for nucleophilic substitutions, cross-coupling strategies, and late-stage functionalization of biologically active molecules. For those who spend their days working on pharmaceutical leads or new organic materials, this reagent acts like a shortcut, letting you add complexity to molecules without running through endless protection and deprotection steps.

    Bromomethyl arenes often open doors in multi-step synthesis, streamlining the path from simple starting material to valuable end-product. Something as simple as attaching an amine, thiol, or other nucleophiles to the bromomethyl site can turn a mundane molecule into a promising candidate for drug discovery. I recall a project where we needed to create a linker for a photoactive dye, and only a bromomethyl derivative of a heterocycle gave us the route we needed. Nothing else would stick where we wanted it, and purity held up even after a few tricky steps.

    Modern drug design rarely uses a one-size-fits-all approach. A quinoline core shows up in antimalarials, antibacterials, and several kinase inhibitors. Adding a functional group, particularly a bromomethyl, lets researchers quickly attach tethers or tags to a molecule’s backbone. This is how 8-Bromomethylquinoline finds its way into labeled probes and bioorthogonal conjugates. Medicinal chemists appreciate being able to install pharmacophores or reporting groups directly where they want them, cutting down on tedious workarounds.

    Comparing to Other Products: Not Just Another Quinoline

    Too often, browsing catalogs or asking for advice, a chemist hears about “other quinoline derivatives,” but these selections rarely fill the same roles. Some classic quinoline derivatives rely on halogen substituents at the fourth or eighth position, or they position their leaving group farther from the ring junction, muddling reactivity or making coupling less efficient. 8-Bromomethylquinoline, by contrast, delivers its bromomethyl group at a sweet spot near the edge of the fused rings, maximizing both accessibility for substitution and resonance stability.

    Let’s face it: nobody in the lab wants to waste money or time. Substituting with 8-bromoquinoline, instead of the bromomethyl variant, lands you a different set of properties – the halogen is directly bound to the ring, shifting electronic effects and narrowing synthetic options. Bringing methylation together with bromination, as in 8-Bromomethylquinoline, keeps the aromatic framework intact and allows gentle installation of other groups without overcooking your product or running into nasty side-reactions.

    Safety always matters, especially when dealing with halogenated materials. Some halomethyl arenes break down quickly or give off aggressive vapors. Speaking from experience, handling a bottle of 8-Bromomethylquinoline feels less daunting than some analogous compounds. No overwhelming fumes, just a need for good procedure. Using tough gloves, a tight-sealing bottle, and clean spatulas, good housekeeping goes a long way toward sparing yourself headaches. If cold rooms or temperature logs are available, there’s no harm keeping it cooler than ambient.

    The Path Forward: Responsible Use and Innovation

    Progress in chemistry never happens at a standstill. Newer reagents come and go, some more eco-friendly, others just more effective. 8-Bromomethylquinoline stands as one of those practical intermediates that continues to shape research across academia and industry. Regrettably, it rarely gets recognized for the role it plays behind the scenes. Without this compound, many advanced functionalizations stall out, forcing more complicated detours or less efficient alternatives.

    Sustainability in chemical production is a hot topic these days. Any chemical that bridges classic methodology with modern needs, especially one that reduces multi-step syntheses, deserves a second look. Less waste, lower solvent consumption, and streamlined procedures translate to real savings – both for the company ledger and for the graduate student rebounding after failed reactions. Responsible use also means careful disposal and recycling of residual brominated waste. Efforts to capture and neutralize these byproducts align with best practices and environmental regulations being enforced more strictly every year. Having served on a green chemistry committee, I’ve seen firsthand how much difference it makes when purchasing teams and bench chemists are on the same page about safe storage and disposal.

    Another thread worth pulling focuses on emerging fields like photoredox catalysis and C-H activation. Researchers are always eager for new benchtop tools, and a compound with built-in reactivity, like 8-Bromomethylquinoline, fits nicely into many of these late-stage modification strategies. The bromomethyl group serves as a surprisingly handy leaving group in visible light-mediated couplings or in tandem with transition metal catalysts. Students just starting in lab may overlook these features, but seasoned researchers recognize the time and effort saved by beginning with an accessible, reliable intermediate.

    Quality Control: Confidence in Results

    One bad batch can ruin a week’s worth of work. Anyone who’s waited on a shipment, then received a clumpy, water-logged reagent knows the pain. Reliable vendors ship 8-Bromomethylquinoline as a pure solid, usually checked by NMR and HPLC. Repeatable spectra mean predictable behavior in the reaction flask. For research teams working on tight timelines or limited budgets, minimizing uncertainty is worth more than fancy advertising.

    No small feat, shipping and handling standards for this compound track the ever-stricter guidelines coming out of regulatory agencies. Moisture-sensitive labeling, tamper-evident caps, and compliance documentation all reflect the rising bar for safe commerce. When it’s your reputation on the line, or that of a team you mentor, it’s not worth cutting corners. In my own work, sticking with well-established vendors prevented plenty of stressful incidents. Still, vigilance at the bench beats blind faith in paperwork.

    A transparent chain of custody builds trust — not just with customers, but also regulators and funding agencies. Audit trails, clear batch records, and full traceability give you confidence that the 8-Bromomethylquinoline in your bottle matches the claims from the certificate of analysis. In an age of reproducibility crises and mounting paperwork, these checkpoints aren’t just legal hoops. They’re critical to maintaining high scientific standards and professional pride.

    Meeting the Challenge: Getting the Most from Your Chemistry Budget

    Nobody enjoys stretching budgets thinner with each order cycle. Yet, for research groups and startups alike, making every dollar count means picking supplies that do double-duty. 8-Bromomethylquinoline fills this niche especially well, providing value not just as a single-use reagent, but as a flexible hub for multiple experiments. Researchers can take the same bottle and branch off into alkylation, cross-coupling, or even multi-component reactions without juggling dozens of specialty chemicals.

    Watching project timelines slip away due to late deliveries, unpredictable stock, or incompatible reagents gets old fast. In the current supply chain climate, products with steady availability and supportive literature see repeat business. Distributors who keep up with changing regulations and maintain careful quality controls provide a welcomed buffer against uncertainty. In my own lab’s work, using well-supported intermediates like 8-Bromomethylquinoline gave us the agility needed to keep research moving, even during rough patches in procurement.

    Volume purchases typically earn discounts, so aligning your project pipeline around a handful of versatile intermediates can save meaningful sums. Some may argue the initial price tag of a rarer compound like 8-Bromomethylquinoline runs higher, but returns are measured in time gained and headaches avoided. The flexibility to support different synthetic approaches, without repeated risk assessments and revalidation, produces subtle but real capital efficiency.

    Practical Recommendations and Common-Sense Advice

    The best tips come from hands-on experience. Before opening a new bottle of 8-Bromomethylquinoline, set up a well-ventilated workspace with all PPE at hand. Working with brominated organics always brings a risk of skin exposure or inhalation, so a good fume hood and sturdy gloves are your first line of defense. I remember once scrimping on airflow controls, only to regret it after lingering odors settled into the lab. Lessons learned stick when they come with a cough or two.

    Solubility and compatibility with common organic solvents help make planning reactions a little easier. Most users dissolve 8-Bromomethylquinoline in DMF, DMSO, or chlorinated solvents, depending on the conditions. Good stirring and gentle heating smooth out dissolution, while care around ignition sources avoids problems. For particularly moisture-sensitive setups, a blast of argon or nitrogen perks up both reactivity and shelf-life. Instead of rushing through prep, take an extra moment to double-check concentrations and stoichiometry; those small investments early on save headaches when scaling up.

    Sharing notes and protocols with colleagues can supplement the technical literature. Combining stories from the bench with published procedures improves reproducibility and confidence, not just for the current experiment but for future generations in the lab. As research and regulation change, passing down practical knowledge about intermediates like 8-Bromomethylquinoline means fewer wasted runs and quicker troubleshooting.

    Embracing the Future: Innovation Beyond the Bottle

    Chemistry stands as a field forever on the move. Every year, new methodologies and reactive partners create fresh opportunities. 8-Bromomethylquinoline isn’t a silver bullet, but its flexibility and reliability keep it relevant as techniques evolve. The compound helps close the distance between classic organic transformations and new, green alternatives.

    Continued interest in ligation chemistry, fluorescent tagging, and metal-free coupling recipes all benefit from ready access to a reliable benzylic halide attached to a bioactive heterocycle. As companies invest in continuous flow reactors and high-throughput experimentation, building blocks like 8-Bromomethylquinoline make adaptation smoother. I’ve seen teams switch from batch to flow reactions while sticking with the same upstream intermediates, saving enormous validation costs. Forward-thinking chemists lean into such advantages, cementing a compound’s reputation beyond its initial applications.

    Regulatory landscapes will keep shifting, with data-driven oversight of chemical use from bench scale to pilot plant. 8-Bromomethylquinoline, unlike many specialty chemicals, comes with enough research history and supplier support to stand up to scrutiny from safety officers and grant reviewers. Labs aiming for ISO certification or other external recognition find that keeping well-documented intermediates like this one on hand can streamline audits and promote trust.

    Summary: Practical, Flexible, and Reliable

    Success in chemistry rarely hinges on flashy, novel reagents. More often, it comes from using reliable, flexible intermediates with trusted track records. 8-Bromomethylquinoline serves as a workhorse, helping research teams synthesize new compounds, optimize legacy routes, and stretch tight budgets. Over the past decade, I’ve watched many teams turn to it when facing tight deadlines or complex targets.

    In a field where the choice of one intermediate can dictate an entire project’s direction, 8-Bromomethylquinoline stands out not for bells and whistles but for its ability to get the job done. Whether you’re just starting a new project or managing a seasoned chemistry operation, a versatile reagent that works across methods, complies with strict standards, and supports innovation always deserves a spot on the bench.