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HS Code |
604925 |
| Chemical Name | 1-(1,4-Benzodioxane-2-Carbonyl)Piperazine |
| Molecular Formula | C13H16N2O3 |
| Molecular Weight | 248.28 g/mol |
| Cas Number | 95221-64-4 |
| Appearance | White to off-white solid |
| Melting Point | 112-115°C |
| Purity | Typically >98% |
| Solubility | Soluble in DMSO, slightly soluble in methanol |
| Storage Condition | Store at 2-8°C, keep tightly closed |
| Smiles | O=C(N1CCNCC1)C2Oc3ccccc3OC2 |
| Iupac Name | 1-(2,3-dihydro-1,4-benzodioxin-2-carbonyl)piperazine |
As an accredited 1-(1,4-Benzodioxane-2-Carbonyl)Piperazine factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | White, opaque screw-cap bottle containing 25 grams of 1-(1,4-Benzodioxane-2-carbonyl)piperazine; labeled with chemical name, CAS number, and hazard symbols. |
| Shipping | The chemical **1-(1,4-Benzodioxane-2-Carbonyl)Piperazine** is securely packaged in airtight, chemical-resistant containers. It is shipped in compliance with safety regulations to maintain product integrity, protect against moisture and contamination, and ensure safe transit. Appropriate labeling and documentation accompany each shipment to meet legal and safety requirements. |
| Storage | Store **1-(1,4-Benzodioxane-2-carbonyl)piperazine** in a tightly sealed container, away from light, moisture, and incompatible materials such as strong oxidizers. Keep in a cool, dry, well-ventilated area, ideally in a designated chemical storage cabinet. Use secondary containment to prevent spills, and ensure proper labeling. Avoid exposure to heat and store at recommended temperatures, typically between 2–8°C (refrigerated). |
Applications of 1-(1,4-Benzodioxane-2-Carbonyl)Piperazine in Industrial ManufacturingAs a direct manufacturer specializing in high-purity intermediate chemicals, we supply 1-(1,4-Benzodioxane-2-Carbonyl)Piperazine for several advanced downstream sectors. This advanced piperazine derivative supports precise synthesis, regulated processing, and stringent purity demands in mature B2B industries. The following application sections outline key roles and integration methods based on real industrial tracks. 1. Pharmaceutical Active Pharmaceutical Ingredient (API) SynthesisPharmaceutical process engineers utilize 1-(1,4-Benzodioxane-2-Carbonyl)Piperazine primarily for custom and generic API development. The compound frequently serves as a core intermediate for manufacturing psychoactive substances and neuroprotective therapeutics. Downstream processors emphasize strict batch traceability, solvent removal, and particle control to comply with regulatory inspection. Typical processing integrates the raw material by acylation or condensation, followed by purification to assure low residual solvents and meet release specifications. Industry compliance standards
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2. Advanced Agrochemical IngredientsSeveral crop protection companies apply 1-(1,4-Benzodioxane-2-Carbonyl)Piperazine in synthesizing pre-emergent herbicide and anti-fungal intermediate molecules. The structure supports high selectivity when incorporated into azole or morpholine analogue production. Formulators control impurity profiles via staged hydrogenation and subsequent crystallization steps. Traceability matrices demand compliant procurement, with product incorporated by nitration, cyclization, or amide-bond formation. Industry compliance standards
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3. Specialty Chemical Synthesis for Performance MaterialsMakers of high-performance polymers and specialty resins incorporate this compound in advanced template-controlled step-growth reactions. The benzodioxane-piperazine motif affords tunable rigidity and dielectric profiles in finished copolymers. Process teams focus on purity control and dosage to minimize byproduct formation, particularly in polyester- or polyurethane-based synthesis lines, using standard extrusion or solution polymerization modules. Industry compliance standards
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4. Research and Development in Fine Chemical LaboratoriesContract research organizations and industrial fine chemical labs employ this intermediate in structure-activity exploration, impurity profiling, and validation of new synthetic routes. Scientists use analytical-grade batches for reference standard creation or structure confirmation, adapting solvent systems and purification criteria to publication or regulatory demands. The compound’s unique structural elements support combinatorial compound library generation in molecular innovation programs. Industry compliance standards
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5. Precursor for CNS Drug Discovery ProjectsSeveral biopharma institutions and in-house medicinal chemistry teams apply the compound as a central precursor in designing novel central nervous system (CNS) agents. Its core supports the synthesis of targeted piperazine-linked scaffolds essential to neuroreceptor binding and drug metabolism studies. Controlled scale-up employs inert atmosphere handling, precision stoichiometry, and validated analytical controls to satisfy both internal discovery milestone releases and preclinical safety batch requirements. Industry compliance standards
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Standing at the intersection of benzo-fused heterocyclic chemistry and piperazine derivatives, 1-(1,4-Benzodioxane-2-Carbonyl)Piperazine keeps showing up in synthetic projects in medicinal chemistry and advanced chemical research. We manufacture this compound with close attention to every stage, because reliable quality comes only from tight process control.
Our 1-(1,4-Benzodioxane-2-Carbonyl)Piperazine, referred to in our production records as Model: BDCP-02, is produced in batches that rarely stray from a consistent purity threshold above 98%. We take direct oversight of crystallization, filtration, and drying, tracing every production run for traceability. This hands-on approach has taught us a few things about both its unique strengths and its challenges.
From raw material handling to final packaging, our process reflects years standing at the reactor, monitoring pressure, temperature, and solvent choice. The dioxane structure brings special handling needs. The benzo portion brings aromatic stability, but impurities sometimes slip in during large-scale reactions, especially if the ring closure step runs too hot or moisture works its way into the system.
We have found that moisture control at the piperazine coupling stage keeps hydrolysis to a minimum and maintains the desired carbonyl purity. Close monitoring—not just of the starting materials, but of solvents too—ensures fewer byproducts and a cleaner final product. Most outside labs may not discuss these details, but after years of full-batch quality control, we have learned the benefit of transparency with our customers. After all, nobody likes working with a crude product that needs extra purification steps, especially in pharmaceutical or agrochemical research.
Our experience tells us that serious users expect more than broad guarantees. BDCP-02 leaves our facility as a white to off-white crystalline powder, with melting points generally falling between 147°C and 151°C. Typical moisture content sits below 0.2% by Karl Fischer, and HPLC analysis runs in-house every week to confirm purity. The NMR and MS data align with the literature, and our tech team will discuss spectra with interested R&D chemists.
Because we control the upstream supply chain, batch-to-batch variability rarely comes up as a concern. Over the years, we have worked with customers who encountered off-spec batches from bulk traders—yellowing, olfactory contamination, or sluggish solubility upon delivery. We sidestep those headaches by running spot checks on intermediates and steady monitoring of solvent washing, which greatly reduces contaminated material.
Our compound often appears in multi-step syntheses for research into CNS-active molecules. Medicinal chemistry teams gravitate towards the benzodioxane ring system for its metabolic traits, and coupling with piperazine adds a route to further derivatization, such as amide linkages or modified cyclic structures. As hands-on chemists, we know the difference between a compound that simply “fits the substrate map” and one that survives storage, repeated sampling, and environmental stresses in the lab.
Several research branches, from academic groups investigating neurotransmitter analogs to startup pharma companies testing enzyme inhibitors, favor this compound’s backbone. We have also collaborated on scale-up projects where formulation scientists ran accelerated stability trials—BDCP-02 maintains structural integrity well, provided that dry containers and ambient temperature are respected. Proper storage matters. If left open in humid air, the crystalline texture clumps and purity readings may sag, so we’ve invested in airtight packaging solutions to help safeguard batches well beyond our facility.
Our technical staff receives questions about solubility and reactivity. For most laboratory solvents—DMSO, DMF, dichloromethane—this compound dissolves without noticeable residue, streamlining further modification reactions. We keep documentation ready for research teams that want to trace impurity profiles or discuss residual solvent analysis. Over the years, we’ve seen this degree of technical engagement help customers sidestep formulation delays, especially during lead optimization stages.
We have processed, purified, and tested several related structures, both in our own facility and in joint development projects. The difference between 1-(1,4-Benzodioxane-2-Carbonyl)Piperazine and something as simple as benzoylpiperazine can be huge, sometimes in ways that do not become obvious until process scale-up or downstream functionalization.
The 1,4-benzodioxane ring structure carries slight electron-donating properties, thanks to its oxygen atoms, which influence how the carbonyl reacts with other nucleophiles and electrophiles. Our customers in medicinal chemistry projects often point out that this unique reactivity lets BDCP-02 introduce new binding affinities not achievable with plain aromatic derivatives. Having the fused dioxane not only shifts the molecule’s electronic structure but can modify pharmacokinetic properties too—a fact highlighted in more than one SAR study published by our academic collaborators.
Cost matters for larger projects. Some see benzodioxane-based intermediates as expensive or tricky compared to simple aromatic systems. By optimizing reaction times and maximizing conversion in our reactors, we have managed to keep yield losses minimal, which keeps pricing competitive. Our clients rarely encounter out-of-spec batches—one of the biggest complaints with piperazine derivatives handled by bulk brokers, especially during the humid summer months.
We have learned that alternative compounds prone to high-water content or oxidative instability tend to disappoint. Our cautious approach—short residence times in the reactor, followed by fast workup and immediate drying—keeps BDCP-02 a stable performer even on the shelf. This stability sets our product apart from more reactive benzodioxane isomers or less pure piperazine derivatives offered elsewhere.
Years on the production floor stress one thing above all: consistent product only comes from respecting the chemistry. Our facility uses dedicated glass reactors for BDCP-02 to reduce cross-contamination with more reactive or odorous piperazine species. Strong ventilation and minimal exposure to acidic conditions protect both the operators and the product.
Packing by hand, we observe the granular, almost talc-like texture—a detail many large-scale automated operations overlook. This attention to textural consistency means faster weighing and less material loss in customer labs. During handling or scaling up, operators wear gloves and goggles, but we rarely observe any aggressive fuming or strong odors from a fresh batch. Our in-house health and safety team runs regular exposure checks, and we have set up decontamination protocols, though routine inspections have yet to find a problem.
When our customers request kilogram lots, we store and ship in airtight containers, keeping each batch segregated from strong-smelling amines that could taint the stable crystalline aroma. Based on real feedback from pharmaceutical R&D partners, clean storage and good labeling matter far more than glossy brochures. Years in this business have taught us that nobody wants to re-run QC on a product that shows unexpected yellowing just before a major experiment.
Having engineered our process from the ground up, attention also turns to environmental load and solvent recovery. Our reactors run with a closed-loop solvent system, minimizing waste and ensuring cleaner end products with less residue. Chlorinated solvents stay out of the mainstream process whenever possible, replaced by more benign alternatives. Neutralization and liquid waste recovery remain priorities in our production document logbooks.
Waste from the benzo-fusion reaction is collected for off-site treatment, with strict routine analysis checking for persistent organics. We train operators on in-line containment if there’s ever a spill, and maintenance logs include solvent purging and safe decompression records. This hands-on attention to safety and environmental stewardship—borne from years of audits and production trials—lets our technical staff speak with confidence to research leads about compliance records.
Customers often ask us about trace heavy metals and solvent residue. Our regular ICP-MS and GC testing rule out batch-to-batch variation. We include batch analytics in shipping documents for labs that require internal environmental compliance. We believe a direct link between batch output data and customer records builds trust and transparency.
Not every job can be solved by purchasing a more expensive material or switching paperwork suppliers. We tackle industry bottlenecks by maintaining a technical support line that links chemists on the production floor to R&D staff using the product. Years ago, a customer needed advice scaling up from pilot plant runs to full synthesis. Our chief chemist shared hands-on tips about adjusting reaction temperatures and managing side products—solutions not available in standard reference documents.
Another customer faced difficult filtration with low-purity imported material. We walked them through a slower, staged crystallization, allowing them to recover usable yield from contaminated intermediate. Lessons like these, learned through direct experience, have shaped our recommendations ever since.
Having kept up with product literature, we see a difference between compounds that merely satisfy a brief specification and those that create results in the hands of bench chemists. We support open dialogue across all teams—lab, production, and compliance—so tricky problems get solved quickly.
No distributor or reseller knows our compound like we do. Operating reactors, monitoring reaction profiles, and handling raw material logistics, our chemists and operators gain practical understanding unavailable to brokers. We have seen what happens when quality slips. A batch of inconsistent raw material causes wasted hours, lost grant funding, and failed synthesis runs. Our company culture values this hard-won knowledge, pushing for honest communication and technical engagement with customers.
Documentation collected from HPLC, GC, NMR, and MS leaves our lab with each shipment. We recognize that most end-users want to trust in quality and consistency, but they also expect technical engagement. Over the years, supporting a mix of startup, academic, and multinational laboratories, we have adopted a culture of continuous feedback and process improvement grounded in direct production experience.
Nothing replaces personal contact between production chemists and end-users. Our product reflects years of hands-on, in-plant process control, not just a string of certificates from outside inspection centers. Customers who have struggled with unreliable intermediates from anonymous trading firms have told us—consistently delivered, stand-alone quality makes progress possible in high-stakes research.
New projects continue to push the boundaries for 1-(1,4-Benzodioxane-2-Carbonyl)Piperazine. As combinatorial synthesis expands and new pharma targets emerge, we keep learning about fresh applications for the benzodioxane scaffold. We attend technical summits and listen to feedback from research chemists, translating their insights into better process tweaks and tighter in-house documentation.
We believe that this approach—combining deep hands-on experience with open technical dialogue—provides the highest value to the research sector. By keeping our focus on quality, responsible production, and ongoing support, our entire team remains committed to delivering a product that researchers can trust, batch after batch.