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HS Code |
489622 |
| Product Name | 5-Bromoindanone |
| Cas Number | 6622-60-6 |
| Molecular Formula | C9H7BrO |
| Molecular Weight | 211.06 g/mol |
| Appearance | Off-white to pale yellow solid |
| Melting Point | 93-95°C |
| Purity | Typically ≥98% |
| Solubility | Soluble in organic solvents like DMSO, chloroform |
| Smiles | Brc1ccc2c(c1)CCC2=O |
| Inchi | InChI=1S/C9H7BrO/c10-7-3-1-2-6-4-5-8(11)9(6)7/h1-3H,4-5H2 |
| Storage Temperature | Store at 2-8°C |
| Synonyms | 5-Bromo-1-indanone |
As an accredited 5-Bromoindanone factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | A 5-gram amber glass bottle with a tight-sealing cap, labeled "5-Bromoindanone, 98% purity," displaying all hazard and handling information. |
| Shipping | 5-Bromoindanone is shipped in tightly sealed containers made from compatible materials to prevent contamination or moisture ingress. It is packed with cushioning material and labeled for hazardous chemical transport, complying with relevant regulations. Typically shipped via ground or air with appropriate documentation and storage conditions, including temperature control if required. |
| Storage | 5-Bromoindanone should be stored in a tightly sealed container in a cool, dry, and well-ventilated area, away from sources of ignition, heat, and direct sunlight. Keep it separated from incompatible substances such as strong oxidizers. Ensure proper labeling, and avoid exposure to moisture. Use secondary containment to prevent accidental release and follow all relevant safety guidelines for chemical storage. |
Applications of 5-Bromoindanone in Industrial Manufacturing5-Bromoindanone serves as a specialized intermediate across select advanced manufacturing sectors, where its reactivity and structural features are harnessed to introduce indanone-derived frameworks or brominated motifs during synthesis. The following downstream scenarios reflect its concrete roles in the pharmaceutical, specialty chemical, and agrochemical industries, each governed by distinct compliance frameworks and technical integration protocols. 1. Pharmaceutical Intermediate for Antipsychotic Drug SynthesisPharmaceutical manufacturers in the CNS therapeutics segment utilize 5-Bromoindanone as a core building block in the synthesis route for select atypical antipsychotic agents. The compound’s unique brominated indanone structure enables the efficient formation of key intermediates during multi-step processes involving palladium-catalyzed coupling and subsequent functional group transformations, ensuring batch-to-batch consistency under validated GMP conditions. Industry compliance standards
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2. Fine Chemical Synthesis of Chiral LigandsIn the custom synthesis of chiral ligands for asymmetric catalysis applications, manufacturers deploy 5-Bromoindanone as a precursor for introducing indanone cores prior to chiral resolution or auxiliary installation. The precise placement of the bromine substituent facilitates subsequent functional group elaboration, supporting the production of ligands with strict enantiomeric purity for metal-catalyzed transformations in industrial settings. Industry compliance standards
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3. Agrochemical Intermediate for Herbicide and Fungicide PrecursorsProducers of active agrochemical ingredients employ 5-Bromoindanone in the controlled synthesis of brominated indanone intermediates that underpin several modern herbicide and fungicide molecules. The precise selection and integration of this intermediate enable scalable routes for high-purity actives, meeting strict regulatory thresholds on impurity profiles and environmental safety in end-use applications. Industry compliance standards
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4. Specialty Dye Intermediate for Advanced Electronic MaterialsManufacturers developing custom dyes for advanced electronics or optoelectronic devices integrate 5-Bromoindanone as a reactive intermediate for crafting brominated indanone dye skeletons. Its incorporation into processing pipelines supports the production of high-stability dyes compatible with OLED and laser marker systems, where exacting control over aromatic substitution patterns is paramount for reproducible device performance. Industry compliance standards
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5. Research Chemical for Custom Small Molecule LibrariesContract research organizations and custom synthesis labs source 5-Bromoindanone as a foundational scaffold in the assembly of high-diversity small molecule libraries for pharmaceutical and materials research. Its well-defined indanone motif supports targeted modifications, enabling rapid structure-activity relationship studies with reliable reactivity under both classical and modern coupling methodologies. Industry compliance standards
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In the chemical manufacturing industry, we work every day to support advances in medical and material science through the careful production of key intermediates. One such intermediate, 5-Bromoindanone, has proven its worth in more laboratories than ever before. With the increasing demand for specialized compounds, seasoned chemists look for consistency, purity, and reliable performance. We pay attention to these details at every step of production, drawing on years of experience to perfect our methodology.
5-Bromoindanone serves as a building block in organic synthesis, providing the kind of structural features researchers need when they are preparing complex molecules. Across pharmaceutical and agricultural sectors, this compound plays a role in research and development, especially among teams working on novel bioactive molecules. Unlike generic ketones or aryl halides, 5-Bromoindanone features both a bromine atom and an indanone core, which introduces unique reactivity. Chemists value this combination for its ability to facilitate subsequent functionalizations without demanding harsh conditions or elaborate protection strategies.
Producing 5-Bromoindanone involves several stages where consistency matters. We source our starting indanone from reputable upstream suppliers who can guarantee traceability and batch reliability. Bromination calls for precise conditions, since over-bromination or insufficient yields can impact downstream usefulness. Our plant’s engineers and operators supervise real-time reaction monitoring and batch tracking, ensuring that each production run meets the tight specifications our clients require.
Controlling moisture and trace impurities can make a tangible difference in organic synthesis. Even minor contaminants sometimes ruin sensitive coupling reactions or introduce by-products in late-stage modifications. For this reason, we emphasize routine lot-by-lot analysis. Each batch undergoes GC-MS and NMR evaluation so we can guarantee structure and purity. Clients working in regulated environments rely on these data to ensure project success and avoid regulatory or safety setbacks.
We’ve listened to our client base over the years and recognized that research chemists face unpredictable setbacks when a batch of material contains inconsistent crystallinity, traces of color, or volatile impurities. Responding to their feedback, we’ve standardized our drying and purification protocols. Every shipment of 5-Bromoindanone leaves our facility within tight color and melting point ranges, backed by a certificate of analysis. In practice, this means medicinal chemists, agrochemical developers, and specialty materials researchers can develop robust synthetic routes without reworking or reoptimizing processes due to inconsistent intermediates.
Our goal is to offer reliable 5-Bromoindanone that meets requirements not just on paper but through direct lab experience. Researchers often share with us the practical impact of small differences, such as trace moisture interfering in Grignard additions or unwanted by-products appearing during Pd-catalyzed coupling. By perfecting packing and shipping routines, we aim to eliminate those headaches. Once a chemist opens a fresh container, the material maintains dry, free-flowing behavior and can be portioned out with confidence.
Generic brominated ketones are available from numerous sources, but not all are created equal. Our 5-Bromoindanone stands apart because of the rigorous attention to crystal habit, particle size, and residual solvent content. For users involved in scale-up, this adds up to fewer surprises when transferring reactions from milligrams to multiple kilograms. Reproducibility matters most when projects move from investigative research to preclinical or even pilot-plant scale, and we see this reflected in the repeat orders from our partners in biotech and pharma.
The indanone core within 5-Bromoindanone changes the reactivity profile compared to simple aryl bromides or other halogenated ketones. This scaffold enables access to cyclic and bicyclic target molecules, which appear frequently in drug development pipelines. Our customers tell us they appreciate how the combination of bromine, which acts as a reactive handle, and the indanone framework expands their options, especially in the elaboration of spirocycles or other ring systems via cross-couplings or reductive aminations.
High purity is the foundation of chemical research. At our plant, 5-Bromoindanone consistently reaches 98% or higher purity, confirmed through modern analytical techniques. During the packing phase, each lot is sealed in airtight, light-resistant containers to preserve material quality. Typical appearance remains as an off-white to light yellow crystalline powder, which matches published literature data and helps end users quickly confirm material identity.
Researchers working under cGMP or GLP guidelines expect more than just a clean product. Documentation—ranging from Certificates of Analysis to detailed batch histories—forms an essential part of every shipment. Our team reviews each analysis before release, spotting even subtle changes in spectral profiles. Transparency is embedded in how we work. Clients have direct access to analytical documentation for every batch, and our technical support team responds to queries year-round.
The pharmaceutical field drives much of the demand for 5-Bromoindanone, especially among groups designing new central nervous system (CNS) agents or exploring novel heterocycles for drug leads. Medicinal chemists often need halogenated indanones to construct key pharmacophores, with 5-Bromoindanone playing a role either as a direct precursor or as a versatile intermediate in divergent synthesis schemes. Existing work reveals that this compound frequently appears in patents for experimental small-molecule therapies, particularly those seeking to enhance metabolic stability or adjust receptor affinity through structure changes.
Beyond the pharmaceutical arena, agrochemical research teams have tested halogenated indanone scaffolds as candidates for novel fungicides and insecticides. The unique shape and reactivity of the indanone moiety allow for fine-tuned activity, while the bromine atom introduces greater potential for further modifications using metal-catalyzed cross-coupling techniques. In materials chemistry, certain research groups explore indanone derivatives in developing new dyes and polymers. Here, purity and consistent supply allow for batch-to-batch reproducibility—crucial for pilot-scale runs.
Every chemical manufacturer faces unanticipated challenges, particularly with specialty intermediates like 5-Bromoindanone. Weather fluctuations, raw material shortages, and transport disruptions periodically test even the best-run operations. Over the years, we’ve dealt with issues ranging from bromine supply bottlenecks to temperature-control failures during recrystallization. These experiences taught us the value of maintaining buffer inventories and investing in in-house analytical capabilities. Without these safety nets, a minor disruption can delay deliveries for weeks and strain client relationships.
We discovered that transparency and communication resolve most issues before they grow into real problems. Early notification about supply hiccups gave our partners time to adapt lab timelines. Sharing technical documentation about impurity profiles, solvent systems, and analytical data helped research teams refine their own quality checks instead of repeating the same tests. In practice, we find that close partnerships between producer and user lead to fewer surprises and more innovation.
Chemical innovation does not stop at the laboratory bench. Both regulators and customers demand assurance that every batch of intermediate is produced under conditions that respect safety, environmental responsibility, and traceability. Our plant meets rigorous standards for emissions, worker safety, and waste management. We implement strict internal audits to match or exceed evolving international guidelines. Experienced compliance teams keep records that track each shipment’s origin, production date, and delivery destination. This attention to regulatory demands builds trust and helps our clients streamline their own reporting obligations.
Working directly with chemical innovators reveals changing priorities in the broader industry. Ten years ago, quick delivery and low price dominated the discussion. Today, buyers scrutinize supply chains, demand clear labelling, and ask detailed questions about each compound’s history. Our shift toward greater transparency and communication has paid significant dividends. We supply detailed batch records and independent analysis results on request—essential for clients facing audit procedures, or for those scaling up formulations for clinical trials or field-testing.
Nothing improves a manufacturing process like honest, direct customer feedback. Some years ago, a medicinal chemistry group reported crystals forming during storage at sub-zero temperatures—a detail missed during routine internal storage testing. This prompted us to expand long-term stability trials, alter our drying protocols, and redesign primary packaging. These improvements now form part of our standard quality checks, and we share these updated procedures upon request so clients know how each quality criterion is maintained.
Client requests for extra documentation—including detailed NMR assignments and full chromatogram printouts—led us to invest further in analytical staff training and data management. Requests for alternative solvent use during packaging (e.g. avoidance of certain carriers or residuals) prompted a full review of our recrystallization protocols. We’ve learned that no issue is too small: what appears as a minor inconvenience to one staff member may disrupt months of effort in an external laboratory.
As demand for specialized indanone intermediates rises, supply chain reliability comes into focus. Shortages of brominated raw materials or plant outages at key suppliers can cause downstream shortages. We've responded by setting up alternative procurement channels and introducing ongoing risk assessments for every vendor that touches production. By partnering with logistics experts, we’ve been able to offer flexible order sizes, from gram-scale samples for early-stage research to multi-kilo lots for late-stage lead optimization.
We frequently receive urgent requests when research projects accelerate unexpectedly or when a new synthetic route succeeds at the bench. Our logistics and account managers coordinate with production to prioritize critical projects and expedite delivery wherever possible. Throughout COVID-related supply shocks and beyond, our contingency planning has kept customers on track, allowing R&D programs to proceed without pause.
5-Bromoindanone distinguishes itself in the lab and at scale. Standard aryl bromides feature simple flat aromatic rings, but the indanone motif delivers a fused bicyclic structure. This affects both physical properties—such as solubility and melting behavior—and chemical reactivity, particularly during metal-catalyzed transformations. Our frequent customers often comment on the smoother reactivity and higher product yields they achieve compared to using monocyclic counterparts.
Working with other halogenated indanones or similar structures highlights the differences. 5-Bromoindanone tends to be less prone to degradation during storage, maintaining chemical integrity through longer supply chains. Other isomers or halogenation positions may lead to instability or higher prices. Our process control ensures cost-effective production while respecting purity and stability. Most important, the reliable performance of this intermediate allows research teams to develop new reaction pathways without repeated troubleshooting.
Research needs evolve rapidly. As new methodologies (such as C-H activation or photoredox chemistry) enter common use, chemists seek reliable intermediates capable of withstanding these advanced protocols. Over the last year, inquiries have grown for customized derivatives, isotopically labelled materials, and novel protective groups. We’ve started R&D projects in parallel with customer requests, so we can adapt synthesis to meet specialized project goals. Our technical staff remain available to advise or collaborate on feasibility testing, analytical method development, and alternative isolation approaches.
We continue to scale investment in process controls, automation, and environmental responsibility. Our engineers actively minimize waste streams and explore safer solvent technologies—reflecting increasing industry emphasis on sustainable manufacturing. All plant recipe changes are validated for robustness, so clients get exactly the compound they expect, regardless of new equipment or protocol shifts.
Our focus remains on manufacturing 5-Bromoindanone that earns the trust of chemists worldwide. Each lot reflects a deep understanding of the challenges researchers face, from initial synthesis through to development and eventual scale-up. The product differs from commodity chemicals not simply in its structure, but in the intentions and experience behind every batch. As research directions shift and standards rise, we adapt, drawing on feedback and collaboration to shape ongoing improvements.
This commitment to consistency, transparency, and open dialogue supports long-term partnerships. Researchers benefit from predictable supply and detailed insight into their materials. We pursue clarity at each stage, ensuring every bottle of 5-Bromoindanone helps enable the next step in scientific discovery. Decades of accumulated know-how, paired with a willingness to adapt, guide the manufacturing process and shape the way we respond to customer needs.