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HS Code |
270405 |
| Chemical Name | Dibenzosuberol |
| Synonyms | 10,11-Dihydro-5H-dibenzo[a,d]cyclohepten-5-ol |
| Molecular Formula | C13H12O |
| Molecular Weight | 184.24 |
| Cas Number | 1679-45-4 |
| Appearance | White to off-white solid |
| Melting Point | 132-136°C |
| Solubility | Slightly soluble in water |
| Purity | Typically ≥98% |
| Storage Temperature | 2-8°C |
| Smiles | OC1C2=CC=CC=C2CCC3=CC=CC=C13 |
| Inchi | InChI=1S/C13H12O/c14-13-8-7-11-5-1-3-9-4-2-6-12(9)10(11)13/h1-6,10,13-14H,7-8H2 |
As an accredited Dibenzosuberol factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Dibenzosuberol, 5 grams, is packaged in a sealed amber glass bottle with a tamper-evident cap and clear labeling for safety. |
| Shipping | Dibenzosuberol is shipped in tightly sealed containers to prevent contamination and moisture exposure. It should be packed according to relevant chemical safety regulations, typically in protective packaging and labeled clearly. Shipping must comply with local and international hazardous material guidelines, including proper documentation. Store and transport in cool, dry conditions, away from incompatible substances. |
| Storage | Dibenzosuberol should be stored in a cool, dry, and well-ventilated area, away from sources of ignition and incompatible substances such as strong oxidizing agents. Keep the container tightly closed when not in use. Protect from direct sunlight and moisture. Ensure proper labeling and secure storage to avoid accidental spills or unauthorized access. Store at room temperature unless otherwise specified by the manufacturer. |
Applications of Dibenzosuberol in Industrial ManufacturingDibenzosuberol serves key roles in multiple specialized downstream industrial sectors. As the direct manufacturer, we work closely with formulation engineers and process development teams to ensure material compatibility, compliance, and value in advanced synthesis, precision polymers, and specialty intermediates. Below are primary application fields with in-depth technical guidance for each scenario. 1. Pharmaceutical Intermediates for Tricyclic Compound SynthesisDibenzosuberol operates as a crucial building block in the manufacturing of advanced pharmaceutical intermediates, especially within the synthesis pathway for tricyclic antidepressants, antipsychotics, and antimuscarinics. Medicinal chemistry applications leverage its structural motifs during multi-step organic synthesis. Its reactivity and purity profile enable tight control over stereochemistry and impurity levels in downstream processes. Partner developers typically stipulate batch traceability, impurity characterization, and robust analytical data packages as part of their technical transfer process. Industry compliance standards
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2. Advanced Organic Electronic MaterialsDibenzosuberol supports the manufacture of high-purity organic molecules used in OLED display backplanes, organic photovoltaic cells, and organic field-effect transistors. Its unique aromatic backbone assists in engineering efficient charge transport materials and rigid molecular architectures required for microelectronic performance consistency. Partners in electronics demand stringent batch consistency, sub-ppm contaminant levels, and documented impurity profiles based on end-use electronic reliability requirements. Industry compliance standards
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3. Specialty Polymers and High-Performance ResinsDibenzosuberol contributes rigidity and thermal resistance to the design of specialty copolymers and engineering resins, such as those used in automotive, aerospace, and high-strength consumer goods. Its fused aromatic structure integrates into polymer backbones, resulting in improved dimensional stability and controlled molecular weight distributions. Polymer technologists require detailed reactivity, melt flow, and compatibility data as well as reliable supply for large-volume compounding operations. Industry compliance standards
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4. Chemical Synthesis for Agrochemical Active IngredientsDibenzosuberol finds use as a core structural intermediate in fine chemical syntheses routes for specific agrochemical actives, particularly within the category of seed treatment and crop protection agents utilizing polycyclic motifs. Its aromatic framework is favored for facilitating key cyclization and etherification steps. Crop science manufacturers require full regulatory support documentation, impurity profiles, and supply-chain transparency to meet national and international registration demands. Industry compliance standards
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Few compounds reflect the pride and precision in organic specialty manufacturing like dibenzosuberol. Our team has spent years perfecting the synthesis and refining the crystallization process, always striving for cleaner yields, tighter batch control, and safer handling. Making dibenzosuberol isn’t just about chemical reactions — it’s about a steady focus at every stage, from material sourcing to the last filter. Over countless runs, we’ve learned where bottlenecks hide, what raw materials deliver the cleanest outputs, and which tweaks save hours in purification. Each lot isn’t just a product — it’s a result of real-world manufacturing know-how and deep respect for our partners in the fine chemical and pharmaceutical research fields.
Our standard batches of dibenzosuberol align with rigorous internal benchmarks covering purity, crystalline structure, and moisture limits. We break down quality not just by chemical assay, but also by what real-world researchers care about — consistent solubility, easy filtration, and reproducible melting ranges. You won’t find vague claims here. We work daily with lot-based HPLC readings, NMR checks for structural clarity, and hands-on inspection of every batch. Impurity profiles take center stage. We invest heavily in new purification media that bring residual solvents far below global norms, an area where many others cut corners but which directly affects downstream syntheses.
Inspecting a batch of our product, you’ll see bright, uniform crystals with a defined, sharp melting point and a persistent dry feel, even under heavier storage. This tells you we’ve chased the last traces of mother liquor and moisture with dedication. Each sample's documentation includes a full spectral package, and our facility audits also ensure no cross-contamination with similar aromatic intermediates.
Researchers and synthesis chemists often approach us for dibenzosuberol due to its value as a robust building block. In medicinal chemistry, its rigid tricyclic backbone paves the way for advanced ligand design, especially in CNS and receptor-focused drug studies. Research into antipsychotic and neuroactive compounds frequently turns to dibenzosuberol as a scaffold. In real-world practice, the clarity of the starting material makes a substantial difference, reducing the need for laborious pre-cleans and avoiding unexpected side products down the line.
Outside pharmaceuticals, its chemical stability opens the door for studies in advanced materials, especially polymer architectures and electronically active frameworks. Our customers share that reaction predictability is the main advantage. Routine handling is stress-free — minimal dusting, and the substance handles mild heat or moisture without caking, so it keeps its flow even in humid seasons.
There are unique hurdles in producing dibenzosuberol at scale. For one, the multi-step synthesis and careful hydrogenation stages mean you can’t cut corners during reaction quenching or washing. Our operators learned this at the bench, the hard way. Early in our history, we saw a whole batch collapse due to trace oxidants left from an ill-timed filter swap. That loss taught us the value of redundant sensors and the need for staggered equipment cleaning.
Reproducibility matters most. We manage crystallization rates down to minute temperature and agitation shifts, not simply to check a box, but because subtle changes in cooling speed impact not just appearance but future reactivity and even the product’s ability to dissolve on scale. Tackling inconsistencies took months of fine-tuning. We upgraded jackets, rebalanced impeller positions, and re-trained our operators on mid-batch sampling. These tweaks eliminated most lot-to-lot surprises.
Washing steps separate top-tier dibenzosuberol from serviceable intermediates. Insufficient solvent exchanges leave stubborn impurities. We invested in in-line monitoring, letting us cut each wash precisely when conductivity hits a set threshold. For final drying, we shifted from basic oven methods to controlled-vacuum drying, which prevents the slow buildup of fines and ensures each granule remains free-flowing and non-clumping right to delivery. Any operator who’s ever wrestled with clumping in a drum on a humid day knows how much this matters in production.
Customers sometimes ask about comparative value: what sets one manufacturer’s dibenzosuberol apart from another’s, or from related tricyclics? We know chemistry on paper doesn’t always translate to chemistry in the flask. Dibenzosuberol holds up under scrutiny because its known reactivity and stability enable ambitious modifications that trickier substrates can’t offer. Having spent years collaborating directly with process chemists, we recognize the value of a starting material that behaves consistently, even across different reaction protocols. You notice the difference when scaling up a gram-scale reaction to kilogram runs — reproducibility saves time, cuts costs, and keeps research schedules on track.
Choosing between dibenzosuberol and other tricyclic intermediates often comes down to more than just price or purity spec. We've seen applications where alternative compounds, such as dibenzosuberane derivatives or tetrahydroanthracenes, provide some of the same backbone rigidity. But these alternatives frequently lack solubility or produce unwanted byproducts during alkylation and halogenation steps. For projects that demand reliability in transforming the aromatic core with further substitutions, our customers tell us dibenzosuberol consistently outperforms. The unique arrangement of its fused rings and single hydroxyl group makes the chemistry straighter, reducing unexpected fork points in stepwise syntheses.
On the downstream side, we find that dibenzosuberol’s stability during storage makes it easier to manage long-term inventories. While other products develop color over time or lose their integrity under normal warehouse conditions, our dibenzosuberol maintains a crisp visual purity and stays free from odorous degradation, even after months on the shelf. Practical improvements in batch size and storage conditions arose from reading the logs of real warehouse managers, not just copying best practices out of a handbook.
Every veteran in a production facility knows that specs on a sheet and performance in a reactor don’t always align. Our journey with dibenzosuberol taught us that tiny variabilities in input material — a small variation in the grade of benzene or sodium used in the earliest step — show up weeks later as inconsistencies in yield or color. We began implementing stricter checks at receipt of all inputs, running frequent micro-scale trial reactions before launching full-size production. This way, we catch off-spec input batches before they cost days of work downstream.
Another point only experience can show: the effect of environmental controls. Shifts in ambient temperature and humidity influence both crystallization and drying outcomes. Early batches sometimes clumped or developed faint coloration. Continuous monitoring and quicker transitions between process steps solved these problems — closing the gap between last wash and drying, fine-tuning the drying profile based on weekly weather readings, and scheduling nighttime operations to avoid midday temperature swings.
Health, safety, and environmental stewardship run through every decision. We replace aggressive solvents wherever process chemistry allows it, not just to tick compliance boxes but because solvent handling exposes teams to real risks day after day. Product quality is tied to cleaner air and less hazardous waste. Our facility has phased in safer work practices: closed systems, improved exhaust filtration, and extensive operator credentialing. The end result is safer dibenzosuberol production, with batches of unmatched purity, and a workforce confident in both their craft and workplace safety.
The best insights about dibenzosuberol come straight from researchers’ benches. Our long-time partners in academia and process development regularly send back real-world feedback. We hear stories of complex synthesis routes made easier by the compound’s stability, lower byproduct burdens during reduction steps, and minimal reprocessing before project milestones. In scale-up settings, teams tell us that our lot documentation makes regulatory prep simpler, matching up batch identifiers with every analytical run and sample archive, whether for filings or future returns to a synthesis path.
We’ve learned that practical issues matter more than theoretical ones in these collaborations. For instance, minor differences in the lot’s color or flowability often act as an early warning of potential issues with subsequent coupling chemistry. Individual observations inform not only our next batch’s cleaning and monitoring but also our design of storage and transport solutions. We provide packaging based on end-user advice — larger drums for process chemists, smaller containers for research labs demanding frequent rotation.
Customers consistently mention the value of reliable lead time. Delivery delays disrupt tightly planned projects, so we’ve built redundancy into our scheduling and logistics. Our old approach of batch-by-batch shipping sometimes created pinch points. Now, by forecasting based on short-term demand, we keep reserve lots in climate-controlled storage, ready for immediate call-off, helping our partners stay agile in their own workflows.
The chemical supply chain faces continuing pressure, from shifting regulations to fluctuations in raw materials. Experienced manufacturers know the hazards of overreliance on a single supplier for critical precursors. During global shortages, we’ve had to pivot quickly — qualifying alternative suppliers, retooling our purification methods, and running back-to-back validation runs to guarantee the lot-to-lot consistency that R&D and production require.
For researchers and buyers, another pain point often stands out: unclear or slow answers to technical questions. We make a point to connect our production chemists directly with our technical support teams. This way, if a client needs advice on solvent compatibility or encounters an unexpected impurity during further derivatization, the answer is rooted in direct production knowledge, not filtered through generic responses.
In terms of sustainability, we continually audit waste streams and invest in closed-loop solvent recovery for dibenzosuberol manufacturing. This reduces both cost and environmental footprint, a shared concern among our largest customers as well as small research outfits. Researchers have highlighted the benefit of our batch-specific certificates, which detail handling and storage conditions and don’t just repeat stock regulatory language. These notes draw from actual post-market experience on stability under various storage setups.
Dibenzosuberol doesn’t just serve one narrow field. Drug discovery, advanced material science, fine fragrance intermediates, even certain agrochemical applications draw on its unique chemistry. Our technical team tracks new literature and patents, staying current with how top labs and industry leaders deploy this versatile building block. We’ve seen dibenzosuberol function both as a key intermediate and as a precursor to advanced ligands and dyes.
Its single hydroxyl group and stiff tricyclic core provide platforms for creative derivatization. We tailor lot sizes and documentation for each customer type — small research groups want fast delivery and absolute confidence in batch-to-batch performance, while formulators and process chemists often need guaranteed reserves and deeper technical support regarding scale-up protocols.
Common substitutes exist, but many involve trade-offs. Analogues with similar ring systems tend to lag in solubility or generate persistent impurities at scale. Customer feedback points us toward ongoing process improvements and pushes us to offer more targeted grades for specialized synthesis, including those focused on optoelectronic materials or advanced polymers.
What sets a true manufacturer’s product apart is accountability at every level. Our plant runs regular process walk-throughs and encourages line operators and R&D staff to collaborate on every new process update. We share real-time feedback — not just on yield, but on ease of handling. Questions from customers about solubility, scalability, and compatibility get direct answers from the people who run the reactors and test the batches, not from generic templates.
Years of engagement with partners guide our continued investments in quality. We regularly upgrade analytical instrumentation, expand SOP training, and host knowledge-sharing sessions across teams. This growth not only improves product but also strengthens every customer relationship.
The journey with dibenzosuberol is far from static. Our team searches for ways to further drive down impurity levels, shrink time-to-delivery, and expand applications, all informed by practical experience in the plant and the laboratory. We welcome feedback, both as a challenge to improve and as a sign of the partnership at the core of specialty chemical manufacturing.