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HS Code |
433444 |
| Iupac Name | 1-(2,4-dimethoxyphenyl)piperazine |
| Molecular Formula | C12H18N2O2 |
| Molar Mass | 222.29 g/mol |
| Cas Number | 41659-98-5 |
| Smiles | COC1=CC(=C(C=C1)N2CCNCC2)OC |
| Appearance | White to off-white solid |
| Melting Point | 70-73°C |
| Solubility In Water | Slightly soluble |
| Pubchem Cid | 3290429 |
| Synonyms | 2,4-Dimethoxy-1-piperazinylbenzene |
| Structure Type | Aromatic, heterocyclic |
| Logp | 2.1 (estimated) |
As an accredited 1-(2,4-Dimethoxyphenyl)Piperazine factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Amber glass bottle, 25 grams, white tamper-evident screw cap, hazard warning label, chemical name and CAS number clearly printed. |
| Shipping | Our shipping process for 1-(2,4-Dimethoxyphenyl)piperazine ensures secure, compliant packaging and swift delivery. All orders are handled according to chemical transport regulations, with tracking provided. International shipping is available, subject to local laws. Please verify import requirements prior to ordering, as some destinations may require specific documentation or permits. |
| Storage | 1-(2,4-Dimethoxyphenyl)piperazine should be stored in a tightly sealed container, protected from light and moisture. Keep it in a cool, dry, well-ventilated area away from incompatible substances such as strong oxidizers and acids. Ensure the storage area is clearly labeled and accessible only to trained personnel. Regularly inspect the container for leaks or degradation and follow all pertinent safety regulations. |
Applications of 1-(2,4-Dimethoxyphenyl)Piperazine in Industrial ManufacturingAs a direct producer of 1-(2,4-Dimethoxyphenyl)Piperazine, we serve core downstream industries that require high-purity intermediates for regulated synthesis. We understand the importance of compliance, precise dosage, and integration into established production lines. Below, we detail major industrial channels that employ this compound as an essential raw material, together with relevant standards, technical ratios, processing stages, and real final products. 1. Pharmaceutical Intermediate for CNS Active AgentsPharmaceutical manufacturers incorporate this compound during advanced-stage API synthesis targeting central nervous system (CNS) pipelines. Medicinal chemists value the dimethoxy-aryl piperazine system for preclinical and clinical molecules, especially serotonin or dopamine receptor ligands. Material is introduced mainly via Buchwald-Hartwig coupling, reductive amination, or Suzuki-Miyaura cross-coupling, depending on target structure. Downstream QC includes full traceability and impurity profiling according to regulatory filings. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
2. Research-Grade Building Block in Medicinal ChemistrySpecialty laboratories and innovation-focused divisions integrate this compound into medicinal chemistry screening programs. The compound’s scaffold is routinely incorporated into libraries for structure-activity relationship (SAR) studies. Researchers synthesize diverse analogs for early-phase pharmacology assessment, often requiring batch-specific CoAs and analytical documentation. Purity and accurate delivery ratios influence downstream data interpretation and assay performance. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
3. Intermediate for Specialty Agrochemical SynthesisAgrochemical producers employ this piperazine derivative for advanced-stage crop protection research and pilot formulation. It enters key steps for synthesizing plant growth regulators and experimental pesticide scaffolds, with strict controls on trace organics and batch reproducibility. Material is typically processed via solvent-mediated coupling to form rare heterocycle ring systems, later investigated for selectivity and environmental stability by downstream partners. Compliance addresses both product and emissions monitoring. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
4. Fine Chemical Intermediate for Advanced PolymersPolymer and coating manufacturers utilize this building block for the synthesis of functionalized monomers in advanced material development. The piperazine ring and dimethoxy substitutions enable tailored cross-linking, employed in specialty epoxy resins and UV-curable coatings. The process introduces the compound by direct amination or etherification in precision reactors, directly impacting end-use durability and safety claims. Production must follow set purity and emission control standards as defined by sector regulations. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
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Manufacturing 1-(2,4-Dimethoxyphenyl)Piperazine is more than just chemistry for us — it’s the result of hands-on practice, regular refinement, and hours spent fine-tuning the processes behind this specialty intermediate. Over years on the production floor, we’ve learned that this compound, with its distinctive balance of methoxy substitutions and a stable piperazine core, attracts both research labs and industrial users who demand purity, reliability, and a consistent supply chain.
Traditionally, piperazine derivatives have filled an important niche in pharma and material sciences, but this particular molecule stands apart. The two methoxy groups on the aromatic ring enhance its electronic properties and solubility profile compared to plainer, unsubstituted phenylpiperazines. These features make it a preferred starting point for synthesis routes that aim for bioactivity or targeted receptor affinity in medicinal chemistry. Colleagues in the lab often remark how its reactivity can save time in multi-step syntheses, avoiding detours caused by less predictable side reactions that crop up with alternative intermediates.
In our plant, lots are typically prepared at a minimum purity of 98%, as confirmed by in-house HPLC and NMR. Moisture, heavy metal traces, and residual solvents are monitored each batch. Getting this level of consistency depends on strict adherence to reaction times and precise temperature control during methylation and cyclization phases. Customers come to us with highly specific impurity limits—especially those developing CNS-targeted drugs—so we have invested in both detection tech and process tweaks that keep unwanted byproducts to a minimum.
Granule size and physical appearance get less attention in the literature, but in reality, they have a strong impact during large-scale formulation or downstream conversion. Clumping or variation in particle size can force process stoppages or additional filtration steps—wasting time and money. We keep a close eye on this detail by adjusting cooling and crystallization rates, then blending in small lots to even out any outliers.
With a structure that encourages flexibility and bioavailability, 1-(2,4-Dimethoxyphenyl)Piperazine finds its way into a variety of R&D settings. In our experience, the pharmaceutical sector turns to it for synthesizing psychoactive agents, serotonin receptor ligands, and even exploratory oncology compounds. The dual methoxy groups often serve as a launching point for further functionalization, as researchers look to tune selectivity without sacrificing stability. Chemists also mention the comparative ease of introducing halogen or alkyl substitutions later on—something noticeably less efficient with similar bases missing those ortho- and para- methoxy handles.
Beyond the health sciences, a handful of clients in specialty materials have explored this intermediate for advanced polymers or surface treatments, using the aromatic piperazine core for improved film formation and hydrophobicity. In these scenarios, solubility in polar aprotic solvents and resistance to oxidative breakdown attract attention. We keep close tabs on demand trends, often adapting our scale and batch timing to align with shifting interest from either field.
Day-to-day production gives us a clear sense of what sets this compound apart from its cousins. Simple phenylpiperazines, for instance, tend to crystallize easily, but they often leave end-users struggling with lower yields during derivatization and purification. On the other hand, derivatives with heavier or more numerous substitutions can become costly both in raw material sourcing and waste management, as side chains introduce more complex purification challenges.
Operators often comment on the smooth handling of 1-(2,4-Dimethoxyphenyl)Piperazine during isolation. Its melting profile avoids the clumping seen in more hydrophilic analogs. In conversations with clients, the discussion often shifts to price-to-performance ratio; methoxy substitutions improve downstream success rates without pricing users out of pilot-scale runs. We study market feedback closely and use these lessons to inform future development strategies, balancing innovation with practicality.
As a supplier, remaining adaptive to raw material fluctuations has proven critical. Methoxy phenols experience periodic shortages depending on global demand for other organics. We diversify sourcing through vetted partnerships in several countries, giving us a buffer against local disruptions. Years of belt-tightening during volatile markets have taught us how important it is to scale efficiently and carry surplus inventory, so we can provide security of supply. Frequent communication with both upstream vendors and clients keeps us alert for anticipated bottlenecks—sometimes letting us bulk up inventory just ahead of a shortage elsewhere.
Handling the transportation and warehousing of this compound involves vigilance. Standard packaging involves sealed drums under inert nitrogen, housed in temperature-controlled rooms to minimize risk of decomposition. We maintain regular training for warehouse staff and drivers, since a single lapse in protocol could translate to product loss or safety hazards. While some manufacturers prefer to ship “just-in-time,” our philosophy leans toward reliability over minimal inventory costs—our clients value this predictability.
Over the years, the questions we hear most often focus on the reliability of our analytics and traceability. Each batch carries a unique code linked to its full production and analytical records. GMP compliance is not just a sticker—it involves detailed documentation for every production run, down to calibration logs for each instrument that touches the compound.
Impurity tracking isn’t just a regulatory checkbox. For pharmaceutical users especially, even low-level unknowns can trigger expensive development delays or regulatory pushback. We set aside portions from each production lot and keep them under lock in our stability chambers, allowing comparison in the rare event of a client-reported issue. Building trust rests on transparency—unexpected deviations trigger immediate root-cause checks in the plant, not just a sterile report from a distant office.
Operating a responsible facility means weighing throughput against environmental load. We invest in recovery units for volatile organics and have phased out several reagents that posed persistent emissions issues. Our solvent recycling system now reclaims more than half the volume used for post-reaction cleanup. Waste streams containing piperazines undergo neutralization and monitored breakdown, with documentation available for client audits. Chemical manufacturing has to meet growing public scrutiny, so we open our doors several times a year to local regulatory agencies and customers wanting to see safety protocols in action. Incidents are rare; when they do happen, teams convene immediately to dissect what went wrong, then share those lessons plantwide.
Employee safety goes beyond posted rules and checklists. Regular drills and scenario analysis keep everyone sharp, and we involve operators in evaluating equipment upgrades or workspace redesigns. Leadership visits the production hall regularly to solicit ideas on reducing risk or improving response. Our aim is not just to follow the letter of the law on hazardous handling, but to foster a culture where every staffer feels empowered to halt a process at the hint of a hazard.
Some clients come to us with custom requests: tighter impurity profiles, alternate crystalline forms, or adjusted moisture content. Working through these demands means collaboration between the customer’s R&D and our technical staff. We keep ourselves available for joint troubleshooting sessions, walking through analytical data together and sometimes running pilot batches right on short notice. In one recent instance, a pharmaceutical customer needed the product at sub-percent moisture for direct compression in tablets. We overhauled our drying protocol to hit the target consistently, then shared the exact method with their QA team. Experiences like these shape our development efforts as much as any internal brainstorming session.
Feedback loops matter. When problems or inefficiencies come up during our partners’ scale-up, our support continues past the delivery dock. We routinely send technical representatives to site visits—in person or virtually—so we can see real-world application challenges firsthand and recommend process tweaks. Respect for NDAs is ironclad, but lessons learned from such partnerships often inform improvements that benefit all our clients. As a manufacturer, adapting to these evolving needs keeps us at the technological edge and strengthens long-term relationships.
Based on the data we collect and the feedback we hear, use cases for this compound are likely to widen. More academic labs are exploring the methoxy piperazine core for next-generation materials, while the pharmaceutical sector pursues novel CNS-active scaffolds. Demand for higher-purity, lower-impurity intermediates persists. Advanced analytics like two-dimensional LC and mass spec fingerprinting are gaining traction, letting us spot ever-smaller impurity signals and tune our synthesis routes accordingly. We keep R&D resources parked on continuous improvement, whether in greener solvent use, automation of reagent dosing, or real-time production monitoring.
Cost pressures challenge every chemical producer these days. Sourcing quality raw materials can send prices swinging, and regulatory costs only climb. Our manufacturing team learns to trim waste and optimize reactor loads without increasing operator fatigue. Energy efficiency gains in plant operations translate directly to better pricing. Those who adapt—investing both in people and equipment—maintain their edge, even as competition heats up and regulatory requirements get stricter.
Delivering on promises means more than meeting a product spec sheet. Batch consistency, on-time deliveries, and clear communication around supply interruptions all separate real manufacturers from intermediaries. Over the years, we’ve welcomed customers in for audits, hosted expert panels, and fielded calls at odd hours to address technical snags in downstream synthesis. Our lab team takes pride in helping customers troubleshoot odd results or brainstorm improved reaction conditions, often drawing on years of hands-on knowledge. We don’t hide behind call centers or templates; real people answer, and our doors remain open to those who want to see production with their own eyes.
Producing 1-(2,4-Dimethoxyphenyl)Piperazine presents daily technical puzzles and new opportunities to partner with creative minds. The molecular structure combines flexibility with performance, making it a staple for research teams and finished goods producers alike. Keeping product quality high and supply chains stable pays dividends in customer trust and repeat business. And while the competition in specialty chemicals keeps everyone on their toes, the willingness to confront challenges head-on, stay transparent, and push for better environmental safeguards sets a real manufacturer apart.
Few outside the industry realize the hundreds of quiet decisions made each day, from raw material checks to packaging improvements, that protect both quality and safety. We look forward to what the next wave of applications brings and stay ready to collaborate, adapt, and support the innovators who rely on us.