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1,2-Dibromo-2-Methylpropane

    • Product Name 1,2-Dibromo-2-Methylpropane
    • Alias tert-Butyl dibromide
    • Einecs 208-867-2
    • 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

    506880

    Chemicalname 1,2-Dibromo-2-methylpropane
    Molecularformula C4H8Br2
    Molarmass 215.92 g/mol
    Casnumber 594-20-7
    Appearance Colorless to pale yellow liquid
    Boilingpoint 128-130 °C
    Meltingpoint -40 °C
    Density 1.72 g/cm3
    Refractiveindex 1.498
    Flashpoint 45 °C
    Solubilityinwater Insoluble
    Structuralformula CH2BrC(CH3)2Br

    As an accredited 1,2-Dibromo-2-Methylpropane factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing A 500 mL amber glass bottle labeled "1,2-Dibromo-2-Methylpropane," features hazard symbols, safety information, and supplier details.
    Shipping 1,2-Dibromo-2-methylpropane must be shipped as a hazardous chemical, following all relevant regulations. It should be packed in tightly sealed, chemical-resistant containers and clearly labeled. Transport must comply with DOT, ICAO/IATA, or IMDG guidelines, using appropriate placards and including safety data sheets to ensure safe handling during shipping.
    Storage 1,2-Dibromo-2-methylpropane should be stored in a tightly closed container in a cool, dry, and well-ventilated area, away from sources of heat, sparks, or open flame. Keep it separate from strong oxidizers, acids, and bases. Store in designated chemical storage cabinets, preferably for halogenated compounds, and ensure containers are clearly labeled and protected from physical damage.
    Application of 1,2-Dibromo-2-Methylpropane

    Applications of 1,2-Dibromo-2-Methylpropane in Industrial Manufacturing

    1,2-Dibromo-2-methylpropane serves as a specialized brominated intermediate in several downstream chemical manufacturing sectors. Our production focuses on quality assurance, batch consistency, and technical support for industrial users operating within regulated frameworks. Below, we highlight verified application areas, specifying compliance references, targeted dosage guidance, industrial process roles, and real-world end product categories.

    1. Agrochemical Synthesis: Intermediate for Fumigants and Nematicides

    This compound functions as a key intermediate for the synthesis of several nematicidal and soil treatment agents. Its reactivity profile supports its transformation into active brominated agrochemicals, meeting international regulatory norms for residue and environmental management.

    Industry compliance standards

    • FAO/WHO Specifications for Plant Protection Products
    • US EPA Pesticide Registration (40 CFR Part 180)
    • EU Regulation (EC) No 1107/2009 for agrochemical intermediates
    • China GB 2763 (Maximum Residue Limits for Pesticides)

    Typical usage ratio

    • 5–18% per batch concentration as a controlled intermediate input; ratio adjusts by desired downstream chain length and final molecule

    Downstream process integration

    • Added directly to bromination or alkylation reactors as the core building block in multi-step synthesis routes for halogenated pesticides

    Final product types

    • Brominated soil fumigants
    • Nematicide actives (e.g., for specialty crop applications)
    • Soil treatment formulation intermediates

    2. Pharmaceutical Intermediate Production: Synthesis of Quaternary Ammonium Compounds

    This material acts as an alkylating reagent for producing quaternary ammonium salts, which form key building blocks in the synthesis of select active pharmaceutical ingredients (APIs) and excipients used in antimicrobial and local anesthetic drug formulations.

    Industry compliance standards

    • ICH Q7A GMP for Active Pharmaceutical Ingredients
    • USP–NF (United States Pharmacopeia—National Formulary) for excipient purity
    • European Pharmacopoeia (Ph.Eur.) monographs for alkylating intermediates
    • 21 CFR Part 211 (US FDA GMP for finished pharmaceuticals)

    Typical usage ratio

    • 8–25% molar equivalent, precisely calculated based on reaction stoichiometry and desired final API purity

    Downstream process integration

    • Introduced in controlled stages of API synthesis, usually after primary amination, to construct quaternization linkages under GMP conditions

    Final product types

    • Quaternary ammonium compound APIs (antiseptics and disinfectants)
    • Pharmaceutical excipients
    • Pharmaceutical-grade chemical intermediates

    3. Specialty Polymer Additives: Chain-Modified Brominated Resins

    Utilized as a reactive modifier, this brominated compound incorporates into specialty polymers to enhance fire retardancy and structural performance. Its selective integration at the polymer precursor stage aligns with safety and performance regulations for engineering plastics and electronic encapsulants.

    Industry compliance standards

    • UL 94 Flammability Standards
    • RoHS Directive (EU Restriction of Hazardous Substances)
    • IEC 60695-11-10 for Fire Hazard Testing of Plastics
    • ISO 9001 Quality Management for Polymer Manufacturers

    Typical usage ratio

    • 2–15% by weight, tailored to matrix compatibility and targeted flame retardant rating (e.g., V-0, V-1, V-2)

    Downstream process integration

    • Dosed at the compounding stage during resin production, with in situ bromination or as a co-monomer for functionalized resins

    Final product types

    • Flame-retardant polyolefin or polycarbonate resins
    • Wire and cable insulation compounds
    • Printed circuit board substrate laminates

    4. Oil & Gas Field Chemicals: Additive for Completion Fluid Brines

    Applied as a density modifier and antimicrobial component in high-density brine systems, this compound supports the formulation of clear completion fluids used during well intervention. Formulators in this segment require halogenated agents for both functional density adjustments and downhole biocontrol.

    Industry compliance standards

    • API RP 13J (Testing of Brines)
    • ISO 9001 for Chemical Quality Management
    • REACH Regulation (EC No 1907/2006) for oilfield additives
    • US EPA Toxic Substances Control Act for Workover Chemicals

    Typical usage ratio

    • 0.5–4% by volume in brine blend, adjusted based on target fluid density (typically 10.0–14.2 lb/gal) and microbiological control requirements

    Downstream process integration

    • Mixed directly into prepared brine formulations at the fluid blending stage, prior to storage or onsite pumping

    Final product types

    • Clear brine fluids for oil & gas completion
    • Biocide-modified well servicing fluids
    • High-density workover fluid blends

    5. Organic Synthesis Research & Custom Fine Chemical Building Blocks

    R&D laboratories and specialty fine chemical producers utilize this compound as an alkylating and brominating agent in the synthesis of specific molecular scaffolds, where controlled halogen introduction is essential for creating bespoke organic molecules used across analytical and industrial research applications.

    Industry compliance standards

    • ISO 17034 (General Requirements for Reference Material Producers)
    • OECD Good Laboratory Practice (GLP)
    • REACH Registration for laboratory chemicals
    • Analytical purity standards (e.g., ACS, ISO)

    Typical usage ratio

    • Variable: 1–20% molar percentage, dictated by the synthetic route parameters and final purity requirements

    Downstream process integration

    • Employed in stepwise alkylation or bromination reactions for assembling multi-functional molecules at both pilot and lab scale

    Final product types

    • Analytical standard compounds
    • Custom organic synthesis intermediates
    • Pharmacological probe molecules
    • Specialty fine chemical reagents
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    Certification & Compliance
    More Introduction

    Introducing 1,2-Dibromo-2-Methylpropane: Practical Insights From Our Production Floor

    On our manufacturing line, 1,2-Dibromo-2-Methylpropane occupies a vital, well-earned space. It belongs to the brominated alkane family, its molecular formula C4H8Br2. The clear, colorless liquid has kept its place in organic synthesis for good reason. After years supplying bulk orders for chemical syntheses, we’ve seen 1,2-Dibromo-2-Methylpropane (DBMP) carve out its niche, not just as a commodity, but as a versatile, workhorse building block for several industries.

    What Sets 1,2-Dibromo-2-Methylpropane Apart In Real-World Applications?

    The practicality of DBMP starts with its molecular structure. Two bromine atoms anchor themselves to adjacent carbon atoms on the methylpropane framework, creating a molecule that behaves predictably in halogen exchange, Grignard reactions, and nucleophilic substitution processes. Our regular partners, ranging from specialty solvent makers to agrochemical and pharmaceutical intermediates producers, value how the dual bromo functionality unlocks different reactivity patterns. You can trace direct improvements in yield and final product purity to the selection of DBMP over alternatives with broader halogenation or different alkyl backbones.

    Unlike some monobromoalkanes that often require more aggressive conditions or give lower product selectivity, our DBMP demonstrates high conversion rates with moderate temperatures and less side-reactivity, particularly in controlled lab and plant-scale syntheses. We hear frequent feedback from reaction engineering teams: fewer byproducts, more consistent downstream purification yields, and an easier time meeting spec targets in bromine-containing APIs and intermediates.

    Molecular Identity and Typical Specifications

    Our 1,2-Dibromo-2-Methylpropane comes produced under closed system bromination using propylene-derived inputs, yielding high-purity material suitable for most downstream processes. Chemically, it’s known as 2-methyl-1,2-dibromopropane. No coloring, no strong odor—a neutral liquid at room temperature. Boiling point hovers near 142°C, and the density measures about 1.9 g/cm³. Our standard specification maintains bromine purity above 98.5% and limits water content below 0.10% by weight. Heavy metal traces from catalysts stay tight, far below regulatory limits. Across years in the business, every lot leaving our tanks gets individually batch-tested for compliance; we do not cut corners or blend marginal material, even when raw material prices spike or schedules face stress.

    The purity and performance you get from DBMP plays a measurable role in many end-use applications. For example, one polyolefin resin plant manager told us a jump in their antioxidant precursor yields after switching away from generic, lower-grade bromoalkanes. Another customer, retooling an active ingredient process, eliminated a whole distillation step after incorporating our product with its narrow boil range and clean chromatogram.

    Direct, Practical Uses Observed in Real Production

    Industrial users source DBMP primarily as an intermediate for further synthetic transformation. Chemists appreciate how the dibromo compound behaves under base-catalyzed elimination to make isobutylene derivatives, or as a coupling partner in the Suzuki or Kumada cross-coupling toolbox. We supply DBMP in drums, IBCs, and dedicated tankers. In bulk chemical manufacturing, the drum and tank truck are more than just shipping vessels. Maintaining integrity of DBMP stock matters—its reactivity with nucleophiles means anything less than tight packaging could compromise your batch.

    Within the pharma sector, DBMP contributes as a halogen source for side-chain modifications or impurity markers within performance APIs. Certain crop protection clients utilize the dual-bromo positions for introducing specialty functional groups that would be tougher to access with more standard monobromopropanes or chlorinated analogs. Throughout all these routes, our technical teams have supported production troubleshooting: a run wasn’t crystallizing as expected, a solvent incompatibility popped up, or operators struggled with a flash point constraint. Our recommendations often draw straight from practical experience with this molecule, not just literature data. When a batch stalls, our staff ask about reaction time, glassware cleaning, ammonia lines, and solvent compatibility—all the factors that impact DBMP’s reactivity profile in actual plant conditions.

    We’ve watched how DBMP reduces batch times in some custom alkylation schemes, and helps minimize side-product formation, especially compared to less symmetrical dibromoalkanes. Its liquid state at processing temperatures reduces handling complexity—no manual melting, no heated lines—unlike equivalents that remain solids or set up at ambient temperature. Dosing pumps handle DBMP without clogging or vapor-locking, which saves both time and maintenance. These direct benefits turn up on profit and loss sheets at fine chemical downstream processors, and help with keeping campaign logistics efficient.

    What Makes DBMP Reliable Compared to Other Brominated Intermediates?

    Across decades, we’ve handled a full slate of brominated alkanes. Our customers routinely compare DBMP with 1-bromopropane, 2-bromopropane, and dibromoethane. In situations requiring double functionalization, DBMP’s configuration stands out, giving chemists selective reactivity that avoids cumbersome protection–deprotection cycles. Monobromides sometimes lead to longer production times, and dibromoethane tends toward more aggressive reactivity, which complicates downstream purification. DBMP’s balanced reactivity and predictable boiling point keep operators from losing product to venting or runaway side-reactions.

    Some specialty manufacturers try side-chain halogenation with generic bromoalkanes, but we’ve seen how product instability, variable boils, and stray contaminants can choke plant output. Over the years, various customers reduced costs by upgrading to DBMP—less raw material lost on rework, fewer off-spec barrels, less downtime waiting on QA. Chemists find DBMP easier to integrate into automated batch or continuous equipment. It also registers fewer drain incidents, an unwelcome cost tied to incorrect volatility or incorrect drain recovery protocols.

    We keep a steady supply of DBMP across the year. This reliability matters: bromine-sourced chemical feedstocks see price and availability swings. We manage the logistics tightly, delivering directly from our own production tanks. There’s no multi-step warehousing or decanting between factory gates and customer site. Less handling means lower risk of contamination, especially for repeat business demanding pharmaceutical- or electronic-grade brominated alkanes.

    From Our Experience: DBMP’s Safety and Handling Nuances

    On the plant floor, practical safety always comes before throughput. DBMP requires the same precautions as similar organobromine chemicals. Employees wear butyl or nitrile gloves, face shields, and mandatory respirators to limit exposure. Vapor containment matters, not purely because of regulatory standards, but because every spill slows down work and costs real money. Over the years, we’ve tested and selected specific drum polymers that hold up against DBMP leaching—no liner breakdown like you might see with recycled barrels. Handling it as a liquid simplifies many processes, but our own operations still follow a proven transfer protocol, reducing vapor emissions and operator risk.

    Training newcomers on DBMP: we walk them through valve operation, eye-wash station placement, and batch logging. Practical plant knowledge—knowing a shipment traveled in cold weather or how to spot off-smelling batches—keeps everything on spec without relying on paperwork alone. We learned, after a few early missteps, that keeping detailed cleaning logs on receiving lines prevents cross-contamination from neighboring isopropyl bromide or propylene dichloride runs. Each lot comes tagged with a unique batch identifier, not because regulations require it, but because mistakes cost more than labor; a tank mixing error can ruin a full week’s campaign output for a major API customer.

    Environmental and Regulatory Considerations From A Manufacturer’s Perspective

    The regulatory bar for brominated intermediates keeps moving upward. Hazard labeling, effluent monitoring, and traceability run through every DBMP campaign. Internally, we track every kilogram—start to finish—using closed vessel and secondary containment. Complying with REACH and local environmental agency rules takes more than document management. It means investing in scrubber upgrades, operator training, and periodic process audits. We sacrificed some operating margin to install a new thermal oxidizer dedicated to bromine capture from side streams. The payoff: our DBMP route produces less HBr vent loss, and final wastewater discharge matches our certification commitments. Regulatory inspections not only drive compliance—they prompt process tweaks that improve downstream batch quality and minimize product recalls.

    Customers across the EU, US, and Asia ask about country-specific compliance. Our team supports audits and document requests, not just for certificates, but often providing raw gas phase analysis, detailed MSDS updates, and transport documentation right down to the UN packaging group. Over time, we standardized much of our secondary container labeling, so there’s no mistake between DBMP and similar bromoalkyl drumsets stored at partner distribution sites. To keep everything above board, our in-house team keeps certifications up to date so no shipment gets stuck in customs, avoiding the pile-up of delayed containers at destination ports.

    Quality Control In Real-World Production

    Every batch of DBMP passing through our unit runs through a sequenced QC plan: gas chromatography for purity, Karl Fischer titration for water, ICP for heavy metals, and density check for accidental dilution. Rejects never get blended back into saleable stock. We know from years of hard-won experience that cutting quality corners brings downstream chaos: off-grade material means lost customer trust, product returns, and sunk man-hours. By managing every production lot from bromination to drum fill, we catch and correct off-trend runs early, long before product leaves our ramp. Process deviations feed back into staff retraining and SOP adjustments to keep future output on track.

    Once, a filtration malfunction let through a trace odor not flagged on the standard chromosome scan. We flagged the sample by nose on a pre-load check, pulled the whole lot, and reprocessed through backwashing and refiltration. The added cost stung. Customers notice when chemicals that “should be odorless” exhibit a scent, and we don’t risk a relationship for short-term throughput. Over the years, these choices don’t appear in P&L sheets, but they show up as repeat orders and production campaign extensions that outlast yearly contract cycles.

    Supply Practicalities: Packaging, Storage, and Delivery

    We commit serious resources to proper DBMP storage. Stainless steel and high-integrity drum linings matter—some early customers learned, when ordering imports, that reactive bromine exposure can corrode steel drums or leach unwanted ions into the stock. After learning from a customer’s failed batch, we moved entirely to lined containers and fitted our storage tanks with moisture-scavenging nitrogen blankets. The upshot: delivered DBMP maintains both purity and reactivity. Warehouses sit on spill trays, and our logistics team keeps active logs of bottling dates and drum turnover rates. Expired stock finds its way into off-site reprocessing, never back into merchant supply. Customers tell us these details save headaches and costly reshipments during scale-ups or R&D pilot campaigns.

    What We’ve Seen Change Over Time in the Industry

    As downstream chemical production tightens, the margin for error has shrunk. Twenty years ago, DBMP could be handled with looser specs. Today, stricter pharma, crop protection, and advanced polymer requirements mean every defect matters. Our technical sales team typically fields inquiries about trace impurities, compatibility with specialty solvents, and lot-to-lot consistency. A lab director at a major pharma partner recently confirmed that lot-specific spectral data and full chain-of-custody paperwork helped win them internal QA clearance in record time. Transparency here wins real-world trust, not just a few extra cents per kilogram.

    During recent short supply periods—in particular, around disruptions in global bromine logistics—our facility kept to contracted fill schedules while others rationed inventory. We rarely substitute or rebrand material, as this introduces trace impurity risks verified by field returns. Customer relationships last, in our experience, because each technical sales action is backed by a consistent, clearly sourced product. We’ve gained repeat business from clients switching away from traders or importers who relied on untraceable third-party suppliers; plenty tell us the savings realized by skipping overcomplicated brokerage networks offset any minor cost difference up front.

    Where DBMP Delivers Greatest Value

    Over years in production support and customer troubleshooting, we’ve seen DBMP prove its worth most in three scenarios: precision syntheses for contract and R&D labs, large-volume chemical manufacturing for high-value specialties, and scale-ups where every minute of reactor downtime costs thousands. Our sales and tech support teams understand each use case from inside the plant. We don’t just sell a “product,” we collaborate with clients reviewing tank samples, running pilot-scale test blends, and pre-validating material specs against evolving formulations. This collaboration often delivers real savings—in time, labor, and yield—above and beyond what appears in the original datasheet.

    Continuous Improvement and Looking Ahead

    Each year brings new process, packaging, and technical requirements. We run periodic feedback sessions and unsolicited surveys with long-term partners to adapt not only final spec but field service. One lesson learned: rapid, well-documented issue resolution far outweighs discounts or freebie samples. Downtime or rejected campaign volume costs exponentially more on modern flexible chemical plants than anything saved on material price alone. Our in-house QC staff tie process improvements to actual customer complaint data, not just internal yield metrics. For every minor variance flagged—be it a delayed truck arrival or micro-leak from a drum seam—our goal remains zero-defect, zero-delay supply.

    We keep pace with new regulatory shifts—REACH revisions, hazard labeling, and the evolving global supply rules governing halogenated intermediates. By keeping production, packaging, and technical support under single ownership we’ve shortened the chain of accountability. Every container, sample, or document reference points back to a traceable, tested batch, a discipline more and more customers ask about as they grow new markets and regulatory exposure. The future of DBMP supply, to us, means tighter manufacturing controls meeting the changing needs of real-world plant and lab teams—not just in our facility, but on every customer loading dock as well.

    Why Genuine Manufacturer Supply Still Matters

    Years of shipment, troubleshooting, and customer feedback make this clear: direct-from-manufacturer supply makes a difference in quality and reliability, especially with a specialty chemical like 1,2-Dibromo-2-Methylpropane. Blended or relabeled material, variable imports, or brokered third-party deals expose supply chains to trace impurities, stock variation, and poor support. We built our business by focusing on direct accountability, plant floor feedback, and responsive technical support that tracks not only lab results, but practical usage on real chemical production lines. Each lot, each drum, and each tankful represent a chain of responsibility that runs from our reaction vessels right to partner facilities across the globe. For customers aiming to push their own process reliability and output higher, DBMP delivered from the source offers clear, measurable value—today, and as product requirements evolve.