|
HS Code |
980615 |
| Chemicalname | 2-Bromopropionic Acid |
| Casnumber | 598-72-1 |
| Molecularformula | C3H5BrO2 |
| Molecularweight | 152.98 |
| Appearance | White to off-white crystalline solid |
| Meltingpoint | 48-52°C |
| Boilingpoint | 202°C (decomposes) |
| Density | 1.68 g/cm3 |
| Solubilitywater | Soluble |
| Purity | Typically >98% |
| Pka | 2.59 |
| Refractiveindex | 1.473 (at 20°C, liquid form) |
| Synonyms | DL-2-Bromopropanoic acid, alpha-Bromopropionic acid |
| Flashpoint | 93°C |
| Odor | Slightly pungent |
As an accredited 2-Bromopropionic Acid factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Amber glass bottle with a secure screw cap, labeled "2-Bromopropionic Acid, 100g," including hazard symbols and handling instructions. |
| Shipping | 2-Bromopropionic Acid is shipped in tightly sealed, corrosion-resistant containers, typically under cool, dry conditions to prevent decomposition. It should be clearly labeled as a hazardous material and handled with appropriate safety precautions. Transport must comply with local and international regulations for hazardous chemicals, ensuring protection from physical damage and incompatible substances. |
| Storage | 2-Bromopropionic acid should be stored in a tightly closed container, in a cool, dry, and well-ventilated area, away from direct sunlight, heat, and incompatible substances such as strong oxidizing or reducing agents. Store at room temperature and protect from moisture. Ensure proper labeling and secure storage to prevent accidental spills or exposure. Use appropriate chemical storage cabinets if available. |
Applications of 2-Bromopropionic Acid in Industrial Manufacturing2-Bromopropionic Acid supports a range of specialized manufacturing sectors as a reactive intermediate and building block. Its use in advanced chemical synthesis underpins traceable supply chains and quality-controlled downstream formulations. Below, we outline its principal applications across multiple industrial segments with a focus on compliance, dosage ranges, integration points, and end-product classes. 1. Pharmaceutical Active Ingredient SynthesisWithin pharmaceutical manufacturing, 2-bromopropionic acid supplies a halogenated moiety crucial for the synthesis of chiral drug intermediates, especially those requiring alpha-brominated carboxylic acids for subsequent amination or condensation steps. QC protocols require batch-level traceability due to strict regulatory controls, and reliable integration into multi-step synthesis helps drug makers achieve the desired enantiopurity and safety standards for APIs, especially in anti-infective and CNS therapeutic classes. Industry compliance standards
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2. Agrochemical Intermediate ManufacturingChemical plants rely on 2-bromopropionic acid in the synthesis of select herbicide and fungicide intermediates, particularly for compounds requiring brominated side-chains prior to further functionalization. Its use enables consistent batch processes under regulated environmental protocols, and accurate dosing balances cost control against required product purity for safe downstream crop protection formulations. Industry compliance standards
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3. Specialty Monomer and Polymer AdditivesPolymer manufacturers utilize 2-bromopropionic acid as a functionalized monomer precursor in the synthesis of specialty polymers and fluoropolymers, especially where brominated functional groups impart flame retardancy and chemical resistance. Exact dosing follows polymerization stoichiometry to ensure consistent molecular weight control and uniform functional group distribution across commercial grade lots. Industry compliance standards
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4. Fine Chemical Synthesis for Chiral Building BlocksIn fine chemical and custom synthesis operations, 2-bromopropionic acid assists R&D and commercial production teams in producing highly pure chiral building blocks. The raw material’s halogenated structure offers chemoselectivity in nucleophilic substitution and carbon–carbon bond-forming reactions, supporting the scalable manufacture of asymmetric synthons for electronics, fragrance, and specialty materials industries. Industry compliance standards
Typical usage ratio
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Our approach with 2-bromopropionic acid always begins with our own eyes and hands in the plant. We manufacture this fine organic acid at a large scale, using equipment and process controls that have proven themselves batch after batch. In the world of haloalkanoic acids, consistency creates the margin between reliable synthesis and wasted effort. That’s why operators at our facility don’t just focus their attention on output—their focus is on keeping every lot within tight purity specs so that the material doesn’t surprise anyone down the line. After years running reactors, scrubbing vapors, measuring titration curves, and troubleshooting tricky runs, we know without precision at the front end, customers are left cleaning up bigger headaches once the product reaches their bench or tank.
2-bromopropionic acid (model: our current synthetic grade) stands out for its purity profile. Our current lots routinely test above 99% by GC with strictly limited byproducts, especially limiting adjacent halogenated acids or unreacted acrylics. From seeing repeated issues in external samples, we know inferior grades frequently carry shadow impurities such as trace bromoacetic acid or overly high water content. Even small out-of-spec levels can cloud crystallization, throw off stoichiometry in pharma intermediates, or add risks for downstream reactivity, especially when you’re pushing for high yields. Our line stays free from those side-products. Quality control steps in our process don’t just catch slips; they’re set up based on genuine issues we’ve encountered, both in internal work and from customers who’ve tried to resolve patchy supply problems from lesser sources.
Within organic synthesis, 2-bromopropionic acid plays a strong role as a building block for chiral centers and functionalized propionate esters. The alpha-bromo functionality guarantees high-level reactivity for alkylations, esterifications, and coupling reactions. For years, major requests we see come from agricultural chemistry, APIs in pharma, research institutions pushing asymmetric synthesis, and specialty applications like coatings or polymer modifications. Chemists working in development value 2-bromopropionic acid for its swift handling of nucleophilic replacements and for introducing precisely-located bromines, both of which matter for regulatory and patentable modifications. Beyond organic syntheses, we've seen our product serve as an intermediate in producing optically active molecules, which often require reliable stereochemistry from their initial feedstocks.
From first-hand experience, we have learned customers want fast clarification on origin and compliance questions. Our 2-bromopropionic acid production lines operate under local regulatory oversight, backed by rigorous documentation and full traceability. Inspection teams monitor every batch from raw bromine handling to packaged drums; we keep analytical data ready for customer review on short notice. This isn’t a burden—it shortens downtime for our partners when their auditors come looking.
Our current specification prioritizes consistent melting points (typically 49–53°C based on pure GC profiles), confirmed by every regular lot sample in the lab. Each drum or canister passes water content checks (usually under 0.2%) because even small deviations affect many catalytic transformations and alloying processes. We measure and cap heavy metals and halide byproducts to single-digit ppm, not just to look good on paper, but because trace contamination has derailed customers' work in the past, especially for pharma and fine chemical syntheses.
On occasion, queries come up regarding differing batches—color, crystal habit, particulate. Those variables often trace back to variation in raw bromine charge or microreactor conditions. Our process engineers keep charge ratios, heating rates, and neutralization steps tuned from run to run. By minimizing batch-to-batch drift, we spare downstream users from recalibrating processes, which reduces lab troubleshooting and pilot scale downtime. This discipline also means that, for years, our product has enabled smoother scale-ups in customer facilities—because what works in the fume hood behaves the same way when run in a 200-liter kettle.
One common question concerns differentiation from similar-looking acids. Some buyers, especially new technical coordinators, ask why they can't substitute other halo-propionic acids or source low-cost brominated acetic acid. While structures overlap on paper, in use, these compounds behave quite differently. Bromopropionic acid, with its secondary bromo on the alpha carbon, gives distinct reactivity profiles compared with bromoacetic acid or 3-bromopropionic acid—making it valuable in specific synthetic situations involving enolate formation or when selectivity matters in coupling or alkylation.
We've tracked user feedback: 2-bromopropionic acid triggers fewer rearrangement issues and off-target products compared with primary bromocarboxylic acids, and provides more predictable downstream handling due to its crystallinity and manageable volatility. Acidity doesn’t match exactly between analogs either, and this shifts pH control for enzymatic or microbial transformations, so a straightforward replacement isn’t an option in critical formulation steps. Engineers from downstream pharma have underscored how switching between analogs demands time-consuming revalidation, which burns through budgets and extends delivery schedules.
Beyond the product sheet, real plant experience shapes every kilogram sent out. Handling brominated acids means we invest in ventilation, specialized personal protective equipment, and storage roofs that eliminate sunlight exposure to prevent decomposition. Each operator on our team receives monthly instruction on best handling practices, not just paperwork reviews. On the shipping floor, tightly sealed containers prevent airborne exposure, and staff examine every drum seal and cap for tightness and evidence of corrosion. Years back, a single overlooked spill set back a shift’s entire production schedule and cleaned out sensitive instrumentation, so now the staff maintains redundant safety checks through every stage, right down to loading into freight containers.
Within the facility, lessons from process upsets influence how we calibrate dosing pumps and time addition rates. For example, when scaling up, highly exothermic points during bromination forced us to adjust jacketed reactor cooling and introduce in situ quench stages—preventing runaway reactions and off-color lots. Each routine maintenance on the condenser trains tracks deposit build-ups, which impact purity and reaction efficiency. Through repeated feedback from users, we even modified our drying protocol, extending vacuum drying hours, reducing risk of hydrolysis and guaranteeing longer shelf lives without caking or softening.
Chemical manufacturing is never just about producing molecules—it’s about standing behind every kilogram shipped. Our technical team, stationed in the plant, takes calls and emails directly from working chemists and operators, who are often up against tight project deadlines and exacting compliance demands. Over the years, incoming requests have shifted; more customers now want audit trails linked to supply chain transparency. This has prompted us to digitize batch records and maintain real-time links with our raw material sources, so every barrel of raw bromine and propionic acid entering the reactor is traceable by system timestamp. We don't brush aside queries—if a customer’s development chemist is chasing a bottleneck, we listen to their application and offer process experience drawn from countless production campaigns to knock out sourcing or impurity issues.
Working directly with R&D teams at several international pharmaceutical firms has taught us just how much detail matters. A slight drift in density or acidity measurement can throw off weeks of formulation or pilot scale trials. Our analytical lab maintains cross-calibrated equipment, participates in round-robin third-party reliability programs, and integrates customer-specific special tests where requested. If a customer is moving toward a novel application or scale, we’re ready to run pilot samples and parallel analyses until specification or application sticking points get resolved.
Market conditions constantly shift. Raw bromine prices have shown sharp swings due to international logistics constraints and regulatory controls over hazardous material shipping. We maintain contracts with multiple regional suppliers, keeping a reserve stockpile in place to smooth over temporary interruptions. Watching the supply chain move through pandemic shutdowns and container shortages, we’ve learned that transparency and proactive ordering are key to keeping downstream manufacturing lines running smoothly; sudden unplanned shortages disrupt not just production, but also R&D timelines for dozens of business partners.
We spend part of every year investing in training for freight teams and regulatory specialists—a single misclassified drum or missing customs document ties up shipments for weeks, so staff are empowered to act fast and communicate with port authorities, inspectors, or logistics partners. By working daily with these constraints, we’ve been able to cut down delivery times and clear customs bottlenecks, getting 2-bromopropionic acid to users before their schedule becomes jeopardized. Cost planning always balances keeping inventories stable and accessible without tipping into excessive working capital or hazard storage.
We don’t believe in one-size-fits-all packaging for chemical specialties. Some labs want small kilogram jars or fluoropolymer-lined bottles for high-purity, rapid use in R&D synthesis. Others, especially pilot plants or fine chemical contractors, take hundreds of kilos in lined drums, with full labeling for regulatory trace and hazard communication. Our shipping operation includes nitrogen-purged packaging options, heat-shrink seals, and shock-resistant containers.
Experience has shown that packaging failures, often from excessive moisture or shock during transit, cause delays and even entire batch rejections. To counter this, we run accelerated shelf-life tests, temperature cycling, and vibration trials on typical packaging units. And if a customer’s facility operates with custom feeder systems or unique unloading parameters, we adapt our drum or tote supply to fit—eliminating bottlenecks or rehandling time on their shop floor. These choices work because we use the same strategies internally before proposing them down the supply chain.
Hazard classification on 2-bromopropionic acid isn’t static. Several years ago, a shift in regional chemical safety directives led to more stringent requirements around labeling, exposure limits, and even trace contaminant monitoring. Our compliance managers undergo regulatory review cycles and language updates on safety data sheets to keep up with evolving transport and usage regulations. This diligence prevents surprise audits and travel blocks at international ports or customer warehouses. We run in-plant training sessions with regularly updated chemical hazard information, making sure operators and packaging staff have the latest requirements.
Reach, GHS, and various regional frameworks now play a direct part in every aspect of production, from local wastewater treatment to international certifications for product and plant. Inspectors visit our site routinely, verifying treatment system performance, emissions controls, and plant records. We communicate these realities directly with every downstream customer so they’re prepared for registration, import, export, or local authority review—saving time, avoiding compliance gaps, and preventing batch rejections.
The demand curve for this specialty acid will keep rising as the chemical and life sciences industries pursue new chiral intermediates, advanced crop protection compounds, and next-generation surfactants. Over the years, by operating at scale and tackling manufacturing challenges up close, we’ve grown confident that consistent, high-quality 2-bromopropionic acid makes the difference between “working chemistry” and chemical experimentation. Decisions made in the plant—whether it’s controlling water carryover, monitoring for trace metal pick-up, or managing stock for delivery reliability—have a direct, daily impact on the scientists and engineers using this compound worldwide.
Whether supporting analytical labs, scale-up pilot production, or full-scale manufacturing in the pharmaceutical or specialty chemicals sector, we know that every customer depends on rapid answers and verified supply. Our approach centers around plant discipline, transparent process feedback, and direct communication with those putting 2-bromopropionic acid to work. This recipe—born in the manufacturing trenches, updated with ongoing feedback—has enabled us to deliver real value, not just another drum of chemical.
In the world of fine chemicals, certainty comes from practical experience. Our facility and people are dedicated to producing 2-bromopropionic acid that you can trust in every batch, so your chemistry works exactly as planned—no excuses, no surprises.