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HS Code |
451742 |
| Productname | 6-Bromopicolinic Acid |
| Casnumber | 65691-18-1 |
| Molecularformula | C6H4BrNO2 |
| Molecularweight | 202.01 g/mol |
| Appearance | White to off-white solid |
| Meltingpoint | 183-187°C |
| Purity | ≥98% |
| Solubility | Slightly soluble in water |
| Smiles | C1=CC(=NC=C1Br)C(=O)O |
| Inchi | InChI=1S/C6H4BrNO2/c7-5-2-1-4(6(9)10)3-8-5/h1-3H,(H,9,10) |
| Synonyms | 6-Bromo-2-pyridinecarboxylic acid |
As an accredited 6-Bromopicolinic Acid factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Amber glass bottle labeled "6-Bromopicolinic Acid, 25g," with hazard symbols, lot number, and manufacturer details; sealed with screw cap. |
| Shipping | 6-Bromopicolinic Acid is shipped in tightly sealed containers, protected from light and moisture. It is classified as a hazardous material, so it is transported in accordance with relevant regulations for chemical safety, typically via ground or air courier with proper labeling and documentation. Ensure appropriate personal protective equipment during handling. |
| Storage | 6-Bromopicolinic acid should be stored in a tightly closed container, in a cool, dry, and well-ventilated area, away from sources of ignition and incompatible substances such as strong oxidizing agents. Protect from moisture and direct sunlight. Store at room temperature, ideally between 2-8°C. Proper labeling and secure storage are essential to prevent accidental exposure or release. |
Applications of 6-Bromopicolinic Acid in Industrial ManufacturingAs a specialized manufacturer, we supply 6-Bromopicolinic Acid to customers in advanced material, pharmaceutical, and agrochemical sectors. This intermediate supports high-value synthesis and formulation with proven track records in commercial production lines. Below, we outline industry-specific downstream uses, regulatory frameworks, process flows, and resulting finished products. 1. Active Pharmaceutical Ingredient (API) Intermediate SynthesisOur clients in the pharmaceutical sector employ 6-Bromopicolinic Acid as a critical building block in pyridine-derivative API synthesis, such as anti-tuberculosis and CNS agents. The compound enters nucleophilic substitution or palladium-catalyzed coupling reactions, forming core scaffolds for further functionalization. Regulatory submission dossiers require strict traceability for 6-Br substituent origin and impurity profiles. Manufacturers adjust concentration according to desired heterocyclic modifications and downstream purification efficiency. API process engineers typically dose the acid in early or mid-synthesis steps, with subsequent conversion to active moieties or prodrugs. Final products include drugs with pyridine-based activity, manufactured under stringent GMP compliance. Industry compliance standards
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2. Agrochemical Intermediate ProductionAgrochemical formulators use this raw material for selective halogenated pyridine synthesis, a precursor for novel herbicides, fungicides, and insecticides. 6-Bromopicolinic Acid is vital for controlling substitution orientation and electron density in ring systems. Downstream producers require compliance with EU and US pesticide intermediate regulations, ensuring minimal contamination and validated synthetic steps. Dosage ratios depend on target molecule complexity and planned multi-step conversion. Process operators typically introduce the acid post-nitration or amidation, leveraging its bromine atom for subsequent functionalization. This approach yields high-value crop protection actives with proven field efficacy after further downstream formulation or derivatization. Industry compliance standards
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3. Electronic Material and Ligand ProductionIn the electronics industry, 6-Bromopicolinic Acid serves as a source for tailored pyridine ligands and functionalized heterocycles used in organic light-emitting diodes (OLEDs), conductive polymers, and specialty semiconductors. Material scientists integrate it into custom ligand synthesis protocols, where consistent high-purity supply and guaranteed bromination accuracy are critical for batch-to-batch reproducibility. The raw material enters amidation, Suzuki coupling, or Stille cross-coupling as a brominated aromatic precursor. Typically, the process requires a closely monitored dosing ratio, matched to device architecture or polymer chain requirements. The resulting ligands undergo further purification before downstream device assembly or ink formulation. Industry compliance standards
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4. Specialty Chemical Catalyst Ligand ManufacturingCatalyst manufacturers select this raw material to construct pyridine-based ligands used in homogeneous catalysis, including transition metal complexes in pharmaceutical, polymer, and fine chemical synthesis. 6-Bromopicolinic Acid provides a controlled halogen handle for further derivatization, supporting high-activity catalyst synthesis. According to downstream application, users comply with internal GMP or ISO 9001 standards, alongside customer-specific trace metal and residual halide content control. Usage ratios typically align with commercial catalyst precursor stoichiometry, and processors introduce the acid prior to metalation or coordination chemistry steps. The completed ligands are critical in driving selectivity and performance in various catalytic cycles. Industry compliance standards
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5. Analytical Reference Material and Impurity ProfilingAccredited testing laboratories and pharmaceutical QC teams utilize this chemical for impurity profiling, method development, and calibration standards. The established purity and trace-level contaminant specifications supplied by the manufacturer are pivotal to analytical reliability in assay validation or forced degradation studies. While typical usage is micromolar to millimolar solutions, the weighed proportions account for instrument sensitivity, matrix effects, and target analyte concentration. 6-Bromopicolinic Acid integrates into HPLC, GC-MS, or NMR workflows as a spiked reference, internal standard, or co-eluting impurity for dossier support. Final analytical outputs reinforce product release, stability documentation, and regulatory filings. Industry compliance standards
Typical usage ratio
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In the business of specialty fine chemicals, we see a lot of molecules come and go across our reactors, but 6-Bromopicolinic Acid stands out for several practical reasons. Its chemical structure – a picolinic acid ring functionalized with a bromine atom on the sixth position – isn’t just a textbook scenario but a daily reality we control from the raw in-feed to the final packed bottle. Chemists who work with heterocyclic building blocks often rely on high-purity intermediates, and this compound answers that call with a profile tuned for synthesis, not just inventory.
Experience has taught us that the way 6-Bromopicolinic Acid gets produced directly fuels its applicability. We start with high-purity 6-bromopyridine reactants, keeping impurities in check using controlled conditions, not batch-to-batch guesswork. During synthesis, precise stoichiometry and purification steps ensure a product that holds up under scrutiny – one that lets process-development teams avoid mystery troubleshooting at scale-up stages.
Our standard lot specification commonly reaches a minimum of 98% purity by HPLC, but more importantly, it arrives with a profile that suits chromatography, direct coupling, or downstream amidation. Moisture and residual solvent content stay extremely low because we know persistent volatiles can impact coupling efficiency, especially during Suzuki or Buchwald–Hartwig type reactions. The tactile aspects – from powder flow to filtration behavior – result from deliberate choices, not just standard method.
The 6-Bromopicolinic Acid we ship isn’t just a nominal batch stamped out by a protocol. If you’ve ever run a coupling with a poor-quality brominated pyridine, you understand the cost of unknowns: reaction rate drags, product isolation becomes tedious, and troubleshooting eats time. With our product, issues tied to metal content and color bodies don’t show up in customer feedback, because we don’t take shortcuts chasing throughput numbers at the expense of process cleanliness.
Storable at standard lab temperatures in sealed containers, it doesn’t demand the same careful refrigeration as some diacid chlorides or boronic acids. It holds up to moderate storage times, maintaining its form without caking or spontaneous discoloration. Granule size isn’t left to chance – we keep sieve cuts practical for day-to-day dosing and weighing in both research and small-scale industrial jobs. Each drum or bottle carries a precise batch record, capturing origins and analytical controls, not just a summary certificate.
Our real-world conversations with customers constantly reinforce 6-Bromopicolinic Acid’s position as a workhorse for medicinal chemistry and advanced materials R&D. It serves as a versatile precursor for creating more elaborate nitrogen-containing frameworks. Medicinal chemists appreciate a reliable bromine handle for rapid derivatization—cross-coupling, nucleophilic substitution, or for late-stage functionalization in multi-step syntheses. We have seen commodity grades elsewhere lead to inconsistent reactivity, especially in Suzuki or Stille couplings. Our focus is always to deliver a product that helps you avoid these setbacks.
Academic labs don’t want to lose grant money to failed runs; process chemists fight hard to hit milestones for pilot batches. Down the pipeline, 6-Bromopicolinic Acid enables ligands or candidate molecules for everything from crop protection to OLED display technologies. Not every project needs sub-ppm metals or single-digit ppm water, but customers working on catalyst-sensitive transformations deserve a reproducible, reliable material—one that doesn’t require pre-treatment or extra purification to get it in shape.
Anyone who’s ordered several manufacturers’ 6-bromo or substituted picolinic acids has discovered that “95%” on a label can mean a dozen different impurity profiles—often with invisible costs in lost time or failed purification attempts. Some users have faced the frustration of variable particle size, off-odors from oxidized impurities, or even paperwork gaps that make regulatory submissions more difficult. Consistency on the shop floor and in the research lab comes from practices refined over years, not just a specification sheet. Technical support and traceability make the difference as problems rarely start on day one; they show up only after weeks of scale-up.
Our batches deliver the fine-tuned consistency required for kilo-scale synthesis or screening campaigns. For those sensitive applications that demand tight control over trace metal limits, we finish with comprehensive ICP-MS screens. For less stringent applications, a robust analysis of halide and nitrogen content ensures nothing unexpected derails process development. Every year, project leads tell us that publishing or launching a new technology rides on more than basic purity. Our approach keeps feedback loops short – direct hotline access, not anonymous support tickets.
From the manufacturing perspective, it’s easy to lump brominated heterocycles together and assume they perform alike. Our on-the-ground experience says otherwise. Many alternatives in the marketplace are sourced as intermediates in agrochemical production chains, leading to variability as suppliers change feedstock or extraction procedures. By contrast, we source and process raw inputs from certified vendors, following detailed lot validation. Routine monitoring for trends in raw material supply and impurity drift means surprises don’t end up in a customer’s hands.
Specific to 6-Bromopicolinic Acid, the placement of bromine and carboxyl functionality offers predictable reactivity patterns for classic cross-coupling as well as carboxylate-directed C–H activation. It’s not just another halopyridine but a true functional bridge for assembling more complex frameworks. Its solubility in common polar solvents like DMF, DMSO, and even acetonitrile makes it a staple for diverse reaction platforms. We have handled requests for custom micronization or specialized packaging, proving adaptable to workflow needs that aren’t always obvious from catalogs.
Comparing with other brominated pyridinecarboxylic acids, such as 2-bromo or 4-bromopicolinic acids, the 6-position substitution pattern profoundly affects regioselectivity and electronic character during reactions. Chemists seeking unique coupling outcomes or site-selective transformations gravitate toward this material because of the synthetic latitude it provides. From where we stand, subtle differences in molecular architecture map directly onto workflow, success rates, and scale-up practicality.
In the past, most of the fine chemical industry kept to relatively manual oversight, trusting experience to catch quality issues. As environmental, health, and procedural standards have tightened, it’s become critical to operate under batch documentation systems and validated analytical instruments. Our labs use NMR, GC, HPLC, and routine Karl Fischer titration, so problems get picked up during lot-release, not weeks later by a disappointed customer. Continuous feedback and careful process monitoring don’t happen by themselves; they require a trained team and a culture that rewards honest reporting, tight controls, and a little bit of perfectionism.
Customers often want product—fast. Rushing inevitably invites mistakes, so we anchor our lead times and production planning on historical performance data, not wishful thinking. Unexpected surges get managed by a buffer inventory, maintained in controlled conditions that preserve integrity. Bulk orders or special requirements are handled by coordinated production runs, built into a flexible campaign structure that adjusts for customer-driven timelines without jeopardizing base quality. In high-stakes synthesis, certainty beats speed—and that ethos drives each dispatch.
6-Bromopicolinic Acid is unforgiving if the process falls short. Slight exposure to atmospheric moisture can influence the isolation step, leading to clumpy, off-color crude that demands extra clean-up. We address this not by gimmick but with hands-on checks, real-time moisture monitoring, and robust in-process records. Even with the best intentions, every manufacturer faces periodic setbacks—a faulty valve, an unexpected analytical blip. The difference lies in response: root-cause analysis, not blame-shifting, keeps slip-ups from repeating. This is not something learned from manuals, but from the lived reality of running real reactors and troubleshooting at 3 AM.
Those entering regulated markets—be it pharmaceuticals, agrochemicals, or new electronic materials—ask for lot-to-lot certificates and full method files. Years of collaboration with auditors and QA has taught us that certification, while sometimes a paperwork exercise, begins with upstream control, raw data access, and technical honesty. When a user requests a specific impurity to be monitored, we treat this as a dialogue, delivering special runs if necessary or refining standard batches to tighten specs. Combined with open technical documentation, this runs much deeper than a sales pitch—it’s a partnership that respects both chemistry and commercial timelines.
The bench chemist who screens twenty ligands for a new pathway has a different perspective than the manufacturing engineer who plans a 100 kg campaign. Each requires predictable materials, unambiguous paperwork, and approachable support. We have tailored our engagement to these needs: samples dispatched for rapid feasibility evaluation, production flexibility to match varying project volumes, and transparent documentation to expedite regulatory submissions. This responsiveness doesn’t show up on the COA but can mean the difference between a project that stays on track and one that stalls in the pilot phase.
Over the years, feedback from scale-up teams has pushed us to strengthen our cleaning validations, improve granule uniformity, and optimize shipping conditions to withstand everything from global freight delays to monsoon moisture. No automated process replaces the value of follow-up calls with project leads, user surveys, or even on-site audits when circumstances call for them. These efforts keep our learning curve short, our standards sharp, and our product line relevant to the people who matter most: the chemists and engineers shaping what comes next.
Logistics for specialty chemicals isn’t just about ticking boxes for customs declarations or courier preferences. In bulk shipments, 6-Bromopicolinic Acid must arrive uncompromised, so packaging runs through validated stability studies—multi-layer liners, inert gas backfill where needed, and clear tamper-evidence. Most failures in remote projects can be traced to overlooked details here: moisture ingress, clumping, or cross-contamination from other goods in shared transport. We run pre-shipment checks routinely and provide direct instructions on handling: avoid direct sunlight, keep containers dry, and transfer under basic precautions to keep bench spaces clean.
For new users or high-throughput facilities, we’re happy to offer practical storage and handling advice, rooted in the lessons of what works on both the small and large scale. Feedback often drives minor but important tweaks—like modifying spout shapes for precise weighing in gloveboxes or providing alternate drum sizes to reduce waste in facilities with space constraints. As shipping networks grow ever more complicated, our customer service team proactively monitors transit and readiness, keeping clients up to date with real-time statuses, not just after-the-fact tracking numbers.
Sustainability is rapidly moving from a buzzword to a mandatory requirement. Regulations, investor expectations, and community standards constantly reshape the way chemical manufacturing is judged. Our environmental responsibility starts at process design, not just at end-of-pipe controls. For each batch of 6-Bromopicolinic Acid, we employ solvent recovery, waste minimization, and batch tracking that meets or exceeds local and international requirements. New process R&D investigates greener bromination protocols and safer alternative solvents, aiming to take molecular craftsmanship a step further.
Life in the chemical sector teaches you that innovation is never static. Academic partnerships, industry consortia, and direct customer requests serve as catalysts for our future product improvements. Analytical technology keeps evolving, driving greater sensitivity and faster turnaround for routine quality control. Customer-specific requirements continue to push our teams—whether for micro-contaminant profiling, unusual scale requests, or alternate physical forms fit for automation and robotics. Because chemistry advances by meeting the next challenge head-on, we see every conversation as a prompt to improve, not merely a transaction.
There’s no shortcut to building trust in the specialty chemicals space. Through years of focused manufacturing, open discussion of challenges, and an unflagging commitment to serving real-world chemists and engineers, our approach to 6-Bromopicolinic Acid has matured alongside the needs of science and industry. This material has quietly powered discovery, helped products move from benchtop to market, and set a standard for what conscientious manufacturing can accomplish.
Every batch represents not just chemistry done right, but also a bridge between the capabilities in our reactor halls and the ambitions in your laboratory notebook or production schedule. As science moves forward, so do we—rooted in the daily realities of molecules and machines, but always with an eye for what makes a material valuable in the hands of those who use it to create tomorrow’s solutions.