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HS Code |
253991 |
| Productname | 5-Bromo-2-Anisaldehyde |
| Casnumber | 5362-78-1 |
| Molecularformula | C8H7BrO2 |
| Molecularweight | 215.05 |
| Appearance | Light yellow to yellow crystalline powder |
| Meltingpoint | 52-54°C |
| Boilingpoint | 312.6°C at 760 mmHg |
| Density | 1.611 g/cm3 |
| Purity | Typically ≥ 98% |
| Solubility | Soluble in organic solvents such as ethanol and DMSO |
| Smiles | COC1=CC(Br)=CC=C1C=O |
| Synonyms | 5-Bromo-2-methoxybenzaldehyde |
| Refractiveindex | 1.602 |
| Storageconditions | Store at 2-8°C, in a tightly closed container |
| Flashpoint | 143.5°C |
As an accredited 5-Bromo-2-Anisaldehyde factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 5-Bromo-2-Anisaldehyde, 25g, supplied in a sealed amber glass bottle with tamper-evident cap and hazard labeling. |
| Shipping | 5-Bromo-2-Anisaldehyde is typically shipped in tightly sealed containers to prevent leaks and contamination. The package should be clearly labeled as a chemical substance and handled according to relevant safety guidelines. It may require transport under cool, dry conditions and in compliance with local, national, and international chemical transportation regulations. |
| Storage | 5-Bromo-2-Anisaldehyde 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 oxidizers. Protect from moisture and direct sunlight. Label containers clearly and keep away from food and drink. Use personal protective equipment when handling to avoid skin and eye contact. |
Applications of 5-Bromo-2-Anisaldehyde in Industrial Manufacturing5-Bromo-2-Anisaldehyde serves as a highly specialized intermediate for several advanced chemical manufacturing processes. Its controlled reactivity and structural features make it valuable for multiple industrial sectors focused on high-value end products. Below we detail the principal downstream use cases, with specific compliance, formulation ratios, integration practices, and terminal goods for each production route. 1. Pharmaceutical Intermediate SynthesisPharmaceutical manufacturers utilize 5-Bromo-2-Anisaldehyde as a key building block for the synthesis of selective serotonin receptor agents, antihistamine candidates, and other heterocyclic scaffolds in new drug development pipelines. Its electron-rich aromatic structure supports efficient nucleophilic substitution and condensation in core drug substance assembly steps. The typical integration is within early-stage molecular modifications for custom active pharmaceutical ingredient (API) development, where traceability and impurity control are critical. Industry compliance standards
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2. Agrochemical Active Ingredient ManufacturingProducers of agrochemical actives and crop protection molecules employ 5-Bromo-2-Anisaldehyde for constructing halogenated aromatic backbones, particularly in fungicide and insecticide core development. Its precision halogenation enables the reliable introduction of bromo-methoxy motifs, which enhance binding characteristics for several classes of active agrochemicals. Downstream processing involves stepwise coupling with thiol, amine, or heterocycle intermediates to create field-stable actives meeting global safety benchmarks. Industry compliance standards
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3. Fragrance and Aroma Intermediate ProductionSpecialty chemical facilities supply 5-Bromo-2-Anisaldehyde to perfume intermediate vendors who require brominated aromatic aldehydes for luxury fragrance notes. This material efficiently introduces warm, powdery, and slightly spicy olfactory characters via subsequent methylation, acetalization, or esterification. Process control at this point ensures retention of delicate aromatic profiles without excessive halide residue, meeting global fragrance safety regulations. Industry compliance standards
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4. Advanced Dye and Pigment SynthesisColorant and pigment factories deploy 5-Bromo-2-Anisaldehyde for synthesizing bromoalkoxy chromophores, which are crucial in creating durable specialty dyes with high photostability and colorfastness. Its reactivity supports stepwise formylation and azo-coupling, enabling customized shades for textile and polymer coloration. Careful in-process monitoring and purification ensure consistent hue intensity and low levels of aromatic impurities, which is mandatory for downstream product durability. Industry compliance standards
Typical usage ratio
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As a chemical manufacturer working day in and day out with specialty aromatics, we know every compound carries its own story: how it’s made, where it’s headed, and the hands it passes through along the way. 5-Bromo-2-Anisaldehyde, also known as 2-Anisaldehyde, 5-bromo-, is a compound that comes up often in our conversations with R&D teams, pharmaceutical labs, and specialty chemical developers. Our crew has produced it for years, and each batch reflects the same commitment we put into all our fine chemicals—consistent purity, steady supply, strict analytics.
Out on the manufacturing floor, there’s no shortcut to crafting this material. Our team uses experience born of repeated trial, critical analysis, and hands-on problem solving. Batch after batch, every reaction must kick off under just the right conditions. We monitor temperature, pressure, and reagent quality—our equipment may include glass-lined reactors, stainless filtration units, and full-suite analytical tools—because there’s no time for downtime if a specification slips. The bromo group and methoxybenzaldehyde backbone give this product a unique chemistry profile, which in turn brings specific responsibilities in how we prepare, contain, and analyze it.
5-Bromo-2-Anisaldehyde is one of those intermediates that always finds new applications, but high purity remains non-negotiable. Off-color, excessive water content, or even subtle side-products can sideline an entire production run. Customers’ downstream synthesis—new pharmaceutical actives, custom ligands, or agri-intermediates—relies on our product matching the tight specifications we’ve set by mutual agreement. Typical moisture limits don’t exceed 0.5%. We routinely check chromatographic purity, often above 98%. Melting point and identity by NMR and mass spectrometry back our QA certificates. All certifications pass through an authentication workflow to eliminate error. It’s a commitment, not an option, because trust takes time to build and only one slip to lose.
Regulatory authorities and major pharmaceutical companies don’t just ask about product specs. They want to know sampling procedures, cleaning logs, containment records, even staff training. We’ve worked these steps into our routine—every operator records each process stage, and each lot undergoes traceability assessment. Experience has taught us that such meticulous routines separate reliable suppliers from one-time jobbers.
5-Bromo-2-Anisaldehyde, with its formyl and methoxy groups para to each other and a bromine at position 5, behaves differently in reactions than either 2-Anisaldehyde or unsubstituted anisoles. The bromine atom activates the aromatic system in selective ways, which directs coupling and condensation reactions. As a consequence, our customers rely on its consistent presence to build new frameworks in synthetic chemistry.
We’ve tested side-by-side batches for lead customers: standard anisaldehyde controls often fail to provide the same yield or reactivity as the 5-bromo variant. In cross-coupling, for instance, the presence of the bromine makes it suitable for Suzuki, Heck, or Sonogashira reactions—key steps in fine chemical and pharmaceutical syntheses. Using a less halogenated or unhalogenated compound simply isn’t an option if a patent claims the bromo intermediate, or if the target molecule demands it. Furthermore, downstream functionality such as further bromination or Grignard addition becomes possible only with the right starting material.
Some early-career chemists ask why they shouldn’t switch to a less expensive aldehyde. Our results over years of production suggest this is a false economy. Material mismatches, erratic yields, or unexpected byproducts in scale-up runs have cost contract research organizations far more than they saved upfront. The lesson: respect the blueprint, use the right intermediate, and avoid surprises in pilot or commercial scale.
We’ve seen 5-Bromo-2-Anisaldehyde start off as a bench curiosity in academic settings and then grow into an essential for process chemistry teams. It acts as a staple in complex heterocyclic synthesis and ligand design for metal complexes. Because the aldehyde and bromo positions can serve as orthogonal handles, chemists stitch together new molecules with admirable precision.
No batch is complete until we confirm performance in real-world reactions. We maintain a modest in-house application group that runs trial syntheses: conventional aromatic substitutions, cross-couplings, and reductive aminations. If problems show up—if an impurity lingers or color evolves on storage—we can trace it back and adjust future batches. Not everything gets solved overnight. It often takes dozens of production runs, countless GC and NMR checks, and extensive troubleshooting. We’ve found that keeping these feedback loops tight with customers—and openly discussing both the achievements and the failures—drives everyone forward.
Certain contract manufacturing partners have specified our material for their own regulated outputs, especially in generics or agricultural chemistry. Here, the value comes not just from achieving reaction endpoints but also from reliable regulatory documentation and prompt logistics. We maintain thorough change-control procedures because customers demand predictability in every shipment.
Seasoned process chemists will remember the frustrations of unexplained inconsistencies when switching between aromatic intermediates. 4-Bromo derivatives, for example, lead to different substitution patterns; ortho-methoxy substituents change both solubility and reaction rate. 5-Bromo-2-Anisaldehyde carves out its own niche where position-specific reactivity is needed. Trying to substitute it with 2-Anisaldehyde or 5-Bromobenzaldehyde brings headaches with regioselectivity or instability of intermediates.
We analyze raw material sources carefully because starting from off-spec precursors ruins both economy and performance. For us, vertical integration matters—we invest in qualified supplier audits, backward tracking to the initial aryl bromide, and frequent certification reviews. Years ago, problems from variable upstream bromination led to one failed consignment, and no one in our group has forgotten the lesson.
Our experience isn’t theory; we’ve faced customer audits where a missed impurity call or minute lot trace error could have blacklisted us from future projects. The market for genuine, precisely substituted aromatics doesn’t forgive sloppiness. The reward has been strong loyalty from clients who know what it means to entrust a critical intermediate to a partner who sweats the small stuff every time, not just during a formal audit.
Over the past decade, we've encountered increased scrutiny regarding environmental impact. Authorities and downstream buyers both demand tight containment for possible organobromine residues and proper handling of spent reagents. Our technicians operate under continuous improvement regimes—closed transfers, solvent recovery, and waste minimization have become routine topics in shopfloor meetings.
The bulk of waste doesn’t vanish; it’s mapped, processed, and disposed of to rigorous standards. We adopted solvent recycling years ago, turning what used to be hazardous waste into reprocessed solvent for cleaning non-GMP lines or labs. By investing early in cleaner reactors and containment upgrades, we’ve kept workplace safety strong and protected our staff from unnecessary exposures.
We regard every process trial as a chance to balance chemistry know-how with practical operations. The cleanroom teams monitor everything from raw material dusting to finished product packaging. Leaks or spills rarely happen, but system audits and safety drills prepare everyone to act fast if something goes awry. Over the years, our investment in both hardware and human safety education repays itself silently—through avoided incidents, strong employee health, and reliable batch clearance.
Markets never sit still. New regulatory edges or customer projects can completely shift the landscape on short notice. Our regular customers sometimes come with detailed questions about residual solvents, or the impact of certain isomeric contaminants. Emerging biosimilar or agrochemical projects push for even tighter batch reproducibility and cleaner analytical profiles. We keep data on every pilot and plant-scale lot. This archive feeds recipe tweaks, batch reviews, and occasional requalification cycles.
Custom requests have led our team to develop alternative packaging formats—sealed ampoules for analytical work, nitrogen-flushed containers for export, or bulk lots for high-volume needs. Once, a major lab needed a higher melting point variant for a specific crystallization route. Our technical team collaborated with them to adapt the workup, refine the washing protocol, and change out a post-reaction solvent. That project took weeks of joint effort, but it deepened trust on all sides.
5-Bromo-2-Anisaldehyde rarely travels on its own; it passes from synthesis lines to drums to shipping containers and on to labs or pilot plants. Each point can add risk—the right packaging keeps humidity out, while temperature control during transit keeps decomposition at bay. We don’t use generic packaging. Multiple times, improvements to seals and liners have prevented minor leaks and kept hygroscopic uptake in check.
Timely delivery is on everyone’s mind, especially when customer projects tie into regulatory filing deadlines. We saw delays in shipping once when third-party carriers fumbled with hazardous material codes. Ever since, we’ve invested in direct relationships with trusted carriers and embedded tracking. We’ve also made secondary stock reserves a routine practice, never promising what we can’t actually supply from plant inventory. This “stock on hand” policy proved essential during peak pandemic or port disruption periods.
No plant, no matter how advanced, runs itself. Each batch of 5-Bromo-2-Anisaldehyde reflects the commitment of skilled chemists, operators, and analysts who double-check every calculation and debate every deviation. Over years, our training program has grown. New team members learn side by side with veterans—handling bromine precursors, monitoring critical control points, recording observations at each stage. Each completed campaign adds to our institutional memory, building resilience and adaptability that benefits every customer project.
It’s easy to understate the value of this kind of long-term know-how. During periods of supply chain crunch, our team’s deep familiarity with both chemistry and logistics has prevented costly failures. Reliable chemical supply isn’t an accident or the result of a lucky streak; it’s the product of years of shared effort, open communication, and continuous improvement.
Most of our customers stick with us because over the years, we’ve owned both successes and setbacks. Our strengths show through in problem-solving, not just in prices or specs. We urge new project leaders to include us early in planning, share pilot results, and draw on our technical input when scaling up reactions. Across the industry, the best-run projects are the result of honest, consistent information flow—not just a series of purchase orders.
Past experience suggests successful projects come from exactly this kind of collaboration, not last-minute substitutions. We’ve seen cases where a customer’s trial with a less carefully manufactured analog led to process contamination or regulatory headaches. These lessons show how costly small compromises can become in regulated supply chains.
We keep up with evolving regulations in Europe, the US, and Asia. Every product intended for regulated use tracks back through declarations on restricted substances, right down to forward-looking hazard documentation. Our own lab staff have taken part in industry workshops, internal audits, and regular skills upgrades to understand not only the technical specifications but also the underlying regulatory logic.
We know from experience how tough sudden regulatory shifts can be. Once, a regional review led us to reformulate a solvent system overnight and requalify a storage tank. By keeping close ties with our downstream partners, we’ve managed to smooth out these bumps and avoid major supply disruptions.
No chemical remains static—neither in the market nor in our production routines. Through continuous feedback loops with both lab customers and large manufacturers, we update our production strategies, analytics, and documentation. Sometimes the market pulls us in unfamiliar directions—new uses in catalyst or polymer research, or requests for documentation supporting unique applications.
These requests don’t get pawned off to a remote R&D group—our technical lead usually discusses them directly with the originating customer. If any doubt exists about batch suitability or stability, we run pilot-scale reactions, test storage at various temperatures, and document our findings. It’s these direct, transparent exchanges that allow us to evolve our offering instead of becoming obsolete or rigid.
Some seasons throw curveballs: a bromide precursor shipment gets delayed, feedstock prices bounce, or sudden regulatory news freezes orders. Over decades, we’ve learned to manage volatility not with hand-wringing but by building multi-source supply relationships and standing supply reserves. We buffer not only against physical supply shortages but also price shock, helping our customers plan their campaigns without unpleasant surprises.
We’ve noticed a shift among informed buyers: instead of chasing the lowest cost, they look for certainty, documentation, and consistent access. Our sales and logistics teams are integrated tightly with production and QC, so decisions are quick and backed by up-to-date plant data. Our approach: finish each batch to the agreed specification, stand by every shipment, and support customer troubleshooting without delay or evasion.
Some engineers know exactly what they want—the grade, the batch history, the documentation trail. Others might come with only a research description or a handful of literature data. We walk through the fit, the tradeoffs, and our own experience at plant scale with each. We don’t claim to know all the answers, but after so many runs, we know where trouble tends to arise and where a thoughtful tweak in either procedure or packaging can head off downstream headaches.
We encourage teams to review our supply records, visit our plant, or audit our procedures. Putting the facts out early builds mutual trust, which matters most during the inevitable tough patches of any project. As the field moves, our promise remains: every lot of 5-Bromo-2-Anisaldehyde reflects the years of accumulated skill, care, and lessons learned from those who have worked its chemistry from bench to bulk.