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HS Code |
299029 |
| Productname | N-Propyl Bromoacetate |
| Casnumber | 35223-80-4 |
| Molecularformula | C5H9BrO2 |
| Molecularweight | 181.03 g/mol |
| Appearance | Colorless to pale yellow liquid |
| Boilingpoint | 162-165°C |
| Density | 1.357 g/cm3 |
| Flashpoint | 63°C |
| Solubility | Insoluble in water, soluble in organic solvents |
| Refractiveindex | 1.451-1.454 |
As an accredited N-Propyl Bromoacetate factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | N-Propyl Bromoacetate is supplied in a 100 mL amber glass bottle with a secure screw cap, labeled with hazard warnings. |
| Shipping | N-Propyl Bromoacetate is shipped in tightly sealed containers, away from direct sunlight, heat, and sources of ignition. Proper labeling and handling precautions are strictly observed due to its hazardous nature—particularly its corrosiveness and toxicity. Shipment complies with all relevant regulations, including DOT, IATA, and IMDG guidelines. |
| Storage | N-Propyl Bromoacetate should be stored in a cool, dry, and well-ventilated area, away from sunlight, heat sources, and incompatible materials like strong oxidizers and bases. Keep the container tightly closed and in a chemical-resistant, clearly labeled bottle. Avoid humidity and physical damage. Store in a flammable chemicals cabinet, complying with local regulations and safety standards. |
Applications of N-Propyl Bromoacetate in Industrial ManufacturingN-Propyl Bromoacetate serves as an essential specialty intermediate in several high-value chemical synthesis sectors, offering targeted reactivity that supports the development of advanced materials and active compounds. As a direct manufacturer, we ensure full traceability and consistent supply for mission-critical downstream processes. The following sectors represent the principal industrial fields with established, technically validated applications for this molecule. 1. Pharmaceutical Intermediate SynthesisThis compound plays a crucial role in producing key intermediates for a range of pharmaceutical APIs, particularly in the synthesis of β-amino acid derivatives and substituted glycine esters used in cardiovascular and central nervous system drug classes. Chemists utilize its alkylating ester group for nucleophilic substitution reactions during multi-step API manufacturing in cGMP-compliant facilities. Industry compliance standards
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2. Agrochemical Intermediate ManufacturingFormulators in the crop protection sector depend on this specialty raw material for the production of selective herbicide and fungicide intermediates. Its bromoacetate moiety enables effective functionalization of nitrogenous scaffolds critical to modern agrochemical efficacy. Downstream processes for active ingredient development mandate reproducible intermediate quality and impurity control. Industry compliance standards
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3. Custom Synthesis of Fine ChemicalsCROs and custom manufacturers leverage this compound for constructing ester and amino-ester structures in development-stage fine chemicals, such as imaging agents, diagnostic markers, and selective ligands for laboratory use. The raw material provides alkylation capability necessary for site-specific label incorporation and modification of complex molecules under controlled manufacturing conditions. Industry compliance standards
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4. Synthesis of Flavors and Fragrances IntermediatesThis raw material enters the flavor and fragrance ingredient supply chain in the form of an acylating agent for producing distinctive esterified aroma and taste compounds. Manufacturers control purity and reactivity precisely to prevent off-note impurities and meet industry-specific sensory and legal requirements during downstream transformations. Industry compliance standards
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5. Active Ingredient Precursor for Industrial BiocidesManufacturers in the biocidal chemicals sector source this material for producing select amino ester-based microbicides and antifungal intermediates. Its structure enables targeted modification of functionalized amines, supporting biocide product formulations designed for coatings, preservatives, and cleaning agents that demand predictable breakdown and environmental profile. Industry compliance standards
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In the world of specialty chemicals, N-Propyl Bromoacetate brings unique value to synthetic routes focused on precision and yield. Manufactured through controlled esterification and halogenation in our facilities, this fine chemical has carved out its place as a building block for both research and manufacturing labs. Our experience running multiple batches under different scales makes it clear: the stability and ease-of-handling offered by N-Propyl Bromoacetate consistently supports dependable process outcomes. Customers working in pharmaceutical intermediates or in agrochemical design often comment on the noticeable difference that our tight QC protocols bring, compared to commercial alternatives or general-purity grades.
Our N-Propyl Bromoacetate appears as a colorless to light yellow transparent liquid, typically boasting a purity exceeding 98%. Each lot shows a refractive index in the expected range, which is always double-checked before bottling. The practical reality of handling this product means every drum or bottle receives a moisture analysis, since minor water content skews alkylation efficiency. Small variances in water or color affect downstream performance during scale-ups and late-stage synthesis—these are the sort of details vendors rarely mention, but as manufacturers, we see their importance every day.
Shipping fresh product directly from our reactor lines avoids the storage degradation that sometimes happens when supply chains lengthen or temperature control is inconsistent. We recommend keeping N-Propyl Bromoacetate in tightly sealed containers, stored away from acids and strong bases to avoid unwanted reactions or shelf-life reduction. Lab teams appreciate the short lead time from order to receipt because shelf freshness translates directly to higher reaction conversions.
Our core user base ranges from medicinal chemistry groups designing new active compounds to industrial clients fabricating herbicide or insecticide precursors. N-Propyl Bromoacetate plays an irreplaceable role as an alkylating agent, transferring its propyl group onto various nucleophiles. The clean reactivity with amines, thiols, and enolates means researchers reduce byproduct loads and save resources during workup—something that comes up again and again in customer feedback.
We have witnessed innovation driven by this product in the synthesis of non-natural amino acids, protected alcohols, and as an intermediate in heterocyclic ring construction. What starts out as a seemingly simple ester finds its way into complex multistep schemes. At manufacturing scale, tight composition tolerances support consistent batch outcomes. Several pilot plant teams have switched from methyl or ethyl bromoacetate to our n-propyl version for its lower volatility and subtle physical property enhancements, which often translate into easier reaction control and safer process conditions.
Working directly at the intersection of product formulation and end-use application, we see differences between N-Propyl Bromoacetate and its homologues show up most in what matters to chemists: volatility, selectivity, environment during use, and safe handling profile. Compared to methyl or ethyl bromoacetate, the n-propyl variant offers a moderate boiling point that reduces losses to evaporation while maintaining sufficient reactivity for fast alkylation. This balance has led several synthesis labs transitioning from more volatile esters, after facing persistent odor and safety complaints.
Unlike isopropyl or higher-chain esters, N-Propyl Bromoacetate remains fluid under standard lab temperatures and flows easily during dosing or scale-transfer. Branched esters (like isopropyl bromoacetate) occasionally offer better solubility but suffer from impurities and inconsistent chain branching when purchased through less exacting sources. As manufacturers, we use linear n-propyl alcohol in our synthesis step to deliver a uniform, unbranched product—a fact our returning customers specifically request, because it impacts downstream selectivity.
Environmental and occupational safety teams often prefer the n-propyl ester for its manageable vapor pressure. It produces fewer noxious fumes than short-chain cousins and does not require excessive ventilation infrastructure in small-batch settings. As proof, multiple partnerships in university and industrial settings have maintained compliance with local air quality regulations while using N-Propyl Bromoacetate at moderate scales, without triggering extra PPE requirements or ventilation retrofits. Rarely does a chemical fit such a flexible niche between physical stability and efficient reactivity.
We treat every kilogram as if destined for the most demanding syntheses. Routine GC and NMR review sharpens our perspective on quality outcomes. In-house chemists perform thin-layer chromatography and acid-base titrations on pilot samples to validate every shipment. Each process improvement—better temperature profile, longer purification column—grew out of customer questions and our own lab experiences running sample syntheses. In many cases, we welcome researchers to send small-scale reaction feedback, which enables us to fine-tune support guidance for process engineers and bench chemists alike.
Details that seem minor in the catalog—such as water content, acidity (as HBr), or the trace presence of propyl bromide—make or break challenging reactions. For this reason, each label on our outbound bottles connects to a detailed certificate of analysis with batch-level commentary and full analytical spectra. If a client reports an unexpected performance anomaly, our QC team reviews archived spectra and process logs to spot batch-specific variables and recommend corrections or alternate lots. Since our production line and analytics lab sit within the same campus, communication around improvement moves faster than in companies that source synthesis or quality services externally.
Customers often come to us recalling experiences with unknown provenance or variable-quality product from intermediaries. As primary producers, we control raw material sourcing, manage in-house synthesis, and document every transfer from reactor to finished goods. Propyl alcohol and bromoacetyl chloride, our key reagents, come from trusted partners with repeatable profiles. We can trace each chemical batch through its lifecycle, from raw feedstock receipt to final packaging.
Our scale allows us to ship both multi-ton containers for industrial partners and bench-scale bottles for research groups without sacrificing batch traceability or support. Production scheduling aligns with confirmed customer orders—avoiding long-term shelf storage and the off-odors that sometimes creep in during distributor warehousing. Repeat clients often comment on the reassuring predictability of lot composition from year to year. In a volatile raw materials market, maintaining this level of traceability creates mutual trust and more stable project timelines for both sides.
We stand by our track record helping clients optimize reaction conditions with N-Propyl Bromoacetate, whether they are running a novel route in a startup lab or managing a validated industrial process. Discussions with R&D chemists have led us to develop handling guides for maximizing yield and purity—such as drying recommendations, compatible solvents, and base selection for minimizing elimination side-products during alkylation.
One pharmaceutical client reduced purification steps in their pipeline after switching to our high-purity N-Propyl Bromoacetate, saving time and reducing solvent waste. In another case, an agrochemical producer increased throughput by implementing a new addition protocol based on feedback from our process engineering group. These real results highlight that chemical quality is not enough—effective support, clarity in communication, and the willingness to troubleshoot with clients define productive partnerships in fine chemical supply.
Production of halogenated esters brings a responsibility to operate with minimal environmental footprint. We invest in solvent recovery, closed venting, and rigorous emissions monitoring, not because it’s legally required at every scale, but because experience shows this reduces risk of complaints and builds goodwill among stakeholders near our production site. After analyzing several years of incident free operation data, we found the correlation between operations discipline and lower batch rejection rates is real. Less waste means both reduced environmental impact and lower overall costs, which benefits customers and manufacturer alike.
Every drum and bottle sent to clients comes with up-to-date guidance for safe storage, accidental release management, and spill response, developed in consultation with EHS partners who have trained at our facilities. Clients receive real application stories rather than just theoretical statements, drawing on situations we and our network have navigated in the field. That experience manifests in practical advice that can prevent costly downtime or regulatory snags during audits or surprise inspections.
Trends in synthesis and product safety never stand still. We regularly review new literature, regulatory alerts, and customer requests, updating our documentation and fine-tuning production methods. Recent demand for higher-purity, phthalate-free solvents led us to add a new purification loop, which now produces N-Propyl Bromoacetate that fits emerging applications in sensitive pharmaceutical formulations. Our flexibility comes not from having a sprawling product list, but from paying attention to the subtle—but crucial—details that each client’s workflow reveals.
For example, a photovoltaics startup asked for micro-scale lots with atypical moisture targets for materials R&D. By customizing our dehydration procedure and verifying with Karl Fischer analysis, we delivered on time and helped that client meet a tight prototype schedule. Close communication with customers who constantly push boundaries sets the direction for future improvements to our plant and process controls, far more than corporate mandates or market bulletins.
Lab trials and pilot-scale experiments sometimes run into setbacks—unexpected impurity peaks, reaction stalling, or color changes from less-than-ideal raw materials. Since we have run our own internal syntheses using N-Propyl Bromoacetate, we draw on firsthand troubleshooting, not just textbook expectations or supplier talking points. Whether a customer works in a GMP context or is scaling a proof-of-concept design, the knowledge that a real manufacturer stands ready to address batch-specific idiosyncrasies has helped teams move projects forward faster and with fewer surprises.
We encourage open dialogue: if a product performance issue emerges, it triggers a review of both production and packing conditions before root cause guidance is sent to the client. Our analytics staff maintains a library of historical data for each product line, allowing us to cross-reference outcomes and provide insights not always available to traders or resellers. This responsiveness has proved decisive, especially in project settings where a week’s delay can derail months of planning.
Some partners bring formulas ready for full-scale production, others ask for development batches at kilogram or even gram-to-mole scale to refine method details. Our hybrid batch and semi-continuous operation give flexibility to schedule production volumes up or down without disturbing timelines for other lines. Real-world constraints—reactor occupancy, raw material lots, labor calendars—mean that good planning and tight integration between R&D and plant staff make more difference than fancy equipment or software.
We understand that process validation for pharma, crop protection, or specialty chemical sectors creates demands for long-term supply continuity. Our in-house documentation covers raw material records, batch process steps, and QA/QC summaries so clients gain confidence in repeating both scale and quality. Scale-up work in our facilities rarely proceeds without early-stage walkthroughs with client process chemists, as firsthand feedback helps avoid mishaps during subsequent commercial campaigns. Our habit of carrying forward insights from every batch means clients see measurable improvement year over year.
Markets always change, but high-purity fine chemicals like N-Propyl Bromoacetate serve as quiet enablers behind much of the progress seen in emerging therapies and new materials. Over the past decade, our commitment to specialty manufacturing and hands-on support has earned continued trust from both multinational research organizations and fast-moving startups. The difference can be seen in customer retention statistics and the frequency of project requests that fall outside the “standard” catalogue specification.
As customers demand more from synthetic reagents—lower impurities, less waste generation, and more transparent production methods—manufacturers with practical experience, versatile tooling, and willingness to engage in detail stand out. We update our procedures and batch records as needed, recognizing that each generation of researchers faces different challenges and tighter performance targets.
The chemical supply relationship should not stop at a packing slip or a regulatory certificate. We choose to partner closely with clients at every stage, working through challenges like in-process discoloration, off-odor events, or challenges scaling a 10-gram step to a 100-kilogram run. Sharing direct experience and focusing on actionable feedback has helped both startup teams and established firms get the most from N-Propyl Bromoacetate, time and again.
The satisfaction comes from knowing each batch moves safely and efficiently from our reactors to your workbench, helping bring new compounds, new materials, and better solutions to market. This shared, practical perspective underpins every innovation—and every bottle—that leaves our site.