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HS Code |
348580 |
| Chemical Name | Tert-Butyl N-(3-Aminopropyl)-N-Methylcarbamate |
| Cas Number | 72853-22-8 |
| Molecular Formula | C9H20N2O2 |
| Molecular Weight | 188.27 g/mol |
| Appearance | Colorless to pale yellow liquid |
| Solubility | Soluble in organic solvents such as DMSO and methanol |
| Purity | Typically ≥98% |
| Storage Temperature | 2-8°C (refrigerated) |
| Synonyms | tert-Butyl (3-aminopropyl)(methyl)carbamate |
| Smiles | CN(CCCNC(=O)OC(C)(C)C)C |
| Inchi | InChI=1S/C9H20N2O2/c1-9(2,3)13-8(12)11(5)7-4-6-10/h4-7,10H2,1-3H3 |
As an accredited Tert-Butyl N-(3-Aminopropyl)-N-Methylcarbamate factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The chemical is supplied in a 25g amber glass bottle with a secure screw cap, labeled with safety, handling, and compound information. |
| Shipping | *Tert-Butyl N-(3-Aminopropyl)-N-Methylcarbamate* is shipped in tightly sealed containers to prevent moisture and contamination. It should be transported at ambient temperature, away from incompatible substances, and in accordance with local regulations for chemical safety. Proper labeling and documentation accompany each shipment to ensure safe and compliant handling. |
| Storage | **Storage of Tert-Butyl N-(3-Aminopropyl)-N-Methylcarbamate:** Store in a tightly sealed container, in a cool, dry, and well-ventilated area away from sources of ignition and incompatible substances such as strong acids and oxidizers. Protect from moisture and direct sunlight. Refrigeration (2–8°C) is recommended for prolonged storage. Label the container clearly and follow all standard laboratory chemical safety protocols. |
Applications of Tert-Butyl N-(3-Aminopropyl)-N-Methylcarbamate in Industrial ManufacturingAs a direct manufacturer of Tert-Butyl N-(3-Aminopropyl)-N-Methylcarbamate, we work with downstream industries seeking advanced intermediates for pharmaceutical, crop protection, coating additives, and polymer modification routes. Below are verified industrial application fields, with a focus on precise compliance, technical process, dosage, and end product context. 1. Pharmaceutical Intermediate for CNS Drug SynthesisPharmaceutical companies incorporate this carbamate derivative as a blocked amine reagent in custom synthesis pathways of central nervous system (CNS) active agents, particularly for N-protected intermediates within the antidepressant and anti-anxiety compound groups. We supply to API plants compliant with current Good Manufacturing Practices, supporting scale-up from pilot to multi-ton batch. The chemical provides selective reactivity to amine groups during the key step of molecule construction, before subsequent deprotection and downstream salt formation. Its application demands rigorous trace impurity control, supported by batch-specific CoA, and adherence to route-of-synthesis change notification protocols. Industry compliance standards
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2. Agrochemical Intermediate for Carbamate Pesticide SynthesisMajor agrochemical formulators use this compound in the synthesis of advanced carbamate-based insecticides and fungicides, where it acts as an amine-sourcing intermediate within multi-step synthesis, especially for alkylated or functionalized carbamate pesticides. The manufacture of crop protection agents involves stringent process audits, and full material traceability. We deliver guaranteed impurity controls and consistent batch reproducibility to support downstream synthesis validations and registration requirements for active ingredient dossiers. Industry compliance standards
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3. Polyurethane Catalyst and Additive ManufacturingPolyurethane system producers utilize this aminopropyl carbamate compound as a low-migration, blocked amine catalyst or chain extender modifier in flexible and rigid polyurethane foam formulations. As an additive, it facilitates delayed amine release during curing. This enables processers to fine-tune cell structure and mechanical properties of foams for automotive and insulation markets. Application requires closed formula disclosure and monitoring to meet VOC limitations and product stewardship agreements with global brands. Industry compliance standards
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4. Epoxy Resin Curing Agent PrecursorEpoxy system manufacturers select this carbamate derivative as an amine-blocked curing agent precursor, particularly in low-emission and high-performance epoxy formulations for flooring, adhesives, and composites. The slow-release amine structure enables hybrid and controlled reaction systems, supporting the development of advanced coatings with high chemical resistance and prolonged working life. We ensure lot traceability, amine value uniformity, and tailored supply to customer blend specifications. Industry compliance standards
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5. Specialty Polymer Modification for Advanced MaterialsSpecialty polymer manufacturers adopt this aminopropyl carbamate as a functional monomer or chain modifier during the synthesis of advanced engineering plastics and functional adhesives. The compound permits the introduction of protected amine sites that can be subsequently deprotected for grafting, cross-linking, or further modification. This route is critical in precision engineering plastics for electronics, filtration membranes, and high-performance adhesives, where tailored functional group introduction dictates polymer properties and downstream utility. Industry compliance standards
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Tert-Butyl N-(3-Aminopropyl)-N-Methylcarbamate has earned a strong reputation among chemists who search for versatile building blocks. In our own facility, rows of reactors convert high-purity starting materials into a molecule that supports the growing needs of fine chemical, pharmaceutical, and advanced material synthesis. Orders come from research labs testing new routes and from process chemists scaling up established methods. Our batches reflect the demand for purity and reliability, and advice from real users guides our continual effort to produce consistent product. Over time, we’ve noticed that customers aren’t interested in a long string of buzzwords—they want results that matter at the bench and in the plant.
Producing Tert-Butyl N-(3-Aminopropyl)-N-Methylcarbamate at scale goes beyond weighing and mixing. Our technical staff have refined the conditions to secure a pure, white, crystalline product every time. Water content sits at a low threshold, checked by Karl Fischer titration in our on-site lab, because excess moisture can seriously impact downstream reactions. The melting point offers another window into consistency, one our quality controllers pay close attention to. Each delivery contains a detailed analysis of purity, and our team takes pride in the absence of ambiguous peaks on the HPLC readout.
We recognize that solvents, reagents, and waste profiles play a significant part in the real-world experience of using this intermediate. Years of experience have shown us how a stray impurity or extra moisture can change the course of a reaction, causing side products or making isolation a headache. We’ve worked directly with clients to solve these headaches, stepping into labs, listening to their feedback, and applying insight into our purification stages. This model—a direct link between lab talk and shop floor practice—has become one of our favorite working rhythms.
In practice, users need more than a name and formula. We ship each lot of Tert-Butyl N-(3-Aminopropyl)-N-Methylcarbamate with the precise data on assay, melting range, and appearance. Our main model satisfies the need for >99% purity, but we also accommodate projects that need alternative grades for scale-up trials or routes with looser tolerances. We’ve watched colleagues trim reaction time or feed directly into a critical coupling step simply by relying on our consistency.
Odor, stability, and solution behavior cannot be neglected. While not hazardous by smell or contact in the forms we manufacture, we help bridge the gap between safety documentation and practical handling tips. Every shipment comes sealed under a dry, inert atmosphere, guarding the product from the humidity and atmospheric carbon dioxide that can occasionally degrade the carbamate function. Our experience with similar carbamate analogues convinced us early that this touch was more than just pedantic—it saves a drum of material from being written off.
We work with both academic researchers exploring new heterocyclic frameworks and manufacturers pushing out multi-ton per year volumes. Tert-Butyl N-(3-Aminopropyl)-N-Methylcarbamate serves several synthetic agendas. Our clients value its primary amine protected by a tert-butyl carbamate (Boc) group, which allows selective reactions at the secondary amine. Once the main transformation is complete, mild acid or TFA treatment cleanly removes Boc without hurting other moieties.
This flexibility features in stories from real users. Last year, a scale-up team trying to optimize a solid-phase peptide synthesis route found our product gave a sharper cleavage profile compared to other N-protected variants. Another research group cranked out a library of urea inhibitors, choosing this carbamate because competing analogues showed more side reactions during coupling or lower compatibility with their catalyst systems. These successes result not from buzzwords, but from rigorous checks during our own production—backed by runs in our customer partners’ reactors.
Batch-to-batch consistency comes up often. One customer, synthesizing a class of small-molecule drugs, flagged that trace residual amines (even at ppm level) could change the yields at the final stage. Our process now includes a double-purification step by column, which nearly eliminated such issues. It added cost and time, but client data proved it made a clear difference in reproducibility.
Our story isn’t that we sell Tert-Butyl N-(3-Aminopropyl)-N-Methylcarbamate among a thousand others on a price list. We make it. Every batch begins with an in-house risk assessment, our own raw materials, and accustomed eyes watching each stage unfold. Sitting between a trader and an end-user, a real manufacturer builds feedback loops into every order. Years of soaking in customer requests, technical questions, and process hiccups led us to optimize the workflow.
For example, some orders need non-standard packaging to prevent clumping in transit. After repeated reports from one global client, we adopted vacuum-sealed aluminum bags even before regulatory requirements caught up. Now, crystallinity stays stable even in overseas shipments or in tropical depots. In another case, a research partner triggered our investigation into a rare impurity profile; we realized the root was in an upstream amine lot—and we switched suppliers.
We keep thorough training for our staff. Every production campaign, even for familiar compounds, starts with reviewing hazard profiles, cleaning, and calibration. This is not corporate PR—inspectors and plant managers can (and do) walk through our facility unannounced. End users want to trust that behind every drum lies hours of analytical work and hands-on quality assurance.
Our customers rarely confine themselves to a single reaction or sector. We’ve supplied Tert-Butyl N-(3-Aminopropyl)-N-Methylcarbamate for not only pharmaceutical synthesis but also as a key intermediate in material science projects. Polymers designed for biomedical devices, dye intermediates, custom ligands for homogeneous catalysis—all found new uses through iterations built on our core product. Collaboration amplifies these success stories. One process chemist aiming for an orthogonally protected scaffold used our recommendations to streamline their deprotection cycle, saving solvent and downtime.
Feedback from startups and Fortune 500s pointed to similar facts: speed and usability matched with transparency. We provide as much technical insight as needed, addressing scale-up variables. For example, a kilogram batch for pharmaceutical intermediates receives the same level of scrutiny as early R&D lots. We share our methods for verifying absence of residual solvents, outline which byproducts may co-elute, and reveal which storage conditions prolong shelf life. Someone new to handling this molecule won’t hit a dead end or discover surprises halfway through a campaign.
Storage, handling, and safety handling tips come from our own daily practice. The carbamate group offers a decent level of protection, but—left open or exposed to high heat—decomposition can occur. We mark optimal handling conditions, so users keep their yields up and avoid breakdowns. Direct communication with our process safety team improves handling on the customer’s side and builds relationships built on trust rather than unrealistic guarantees.
Markets bring a range of similar amine- and carbamate-containing reagents, yet hands-on application keeps setting our product apart. Our process prioritizes clarity over volume. We invite open discussions about unusual requests, like gram-scale pilot runs or custom cuts of starting material. Improvements come from experience—trace color body removal, reducing off-flavors in certain applications, and choosing optimal solvent systems.
Some competitors source multi-intermediate products from random third parties, but our supply chain is closed loop. Whether running a new set of columns or tweaking the crystallization temperature, our team applies lessons learned across hundreds of runs. As a result, synthetic routes that hinge on purity and consistency win out using our compound, again and again.
We have accepted the challenge of matching pace with changing industry standards. Sometimes, a pharmaceutical partner needs a product compliant with the latest European Pharmacopeia heavy metal limits. Other times, a research group cares more about residue after acidolysis. Our technical staff welcomes any question, and often a call leads to a practical tweak or custom report that simplifies regulatory audits.
No process is free from challenge. We encounter issues, from changes in the cost of starting materials to rare but frustrating solubility hiccups. Shipping in certain climates, careless storage, or minor formulation drift can affect the performance of the carbamate in critical synthetic steps. Our answer relies less on paperwork or disclaimers, more on direct outreach and rapid adjustment.
Efforts to improve sustainability in our process prompted a switch from traditional chlorinated solvents to greener options where possible. Early experiments required trial and error; some batches performed worse, others improved. Practical data, not trendy claims, now guide us: reduced hazardous waste saves budget and takes pressure off local disposal teams. We document these learnings because we believe in transparent, fact-driven progress.
Supply chain bumps will likely affect all chemical producers at some point. Timely updates for our clients—and redundant checks on each batch—ensure that if an upstream bottleneck hits, we identify it early. No one wants to discover a missing drum of a key intermediate on the day a production reactor comes online. Direct lines between production, shipping, and after-sales teams give us a unique advantage over remote vendors.
New synthetic applications continue to emerge, each bringing fresh analytical demands. Our work with real-world scientists often reveals a surprising reliance on documentation—a need seldom met by traders without manufacturing capacity. Direct access to actual experimental and analytical records becomes, for many, more valuable than a simple purity number or a generic certification stamp.
We think of Tert-Butyl N-(3-Aminopropyl)-N-Methylcarbamate not as a static commodity, but as a dynamic product whose reputation is built cycle by cycle on clear results. The relationships we hold with scientists, engineers, and process chemists run deep; their outcomes—yields, purity, repeatability—drive our own learning curve. We know from long-term partnerships that facts tell a truer story than marketing gloss.
Ongoing improvement stands at the core of our practice. Real-time adjustments, a genuine interest in application feedback, and continuing investment in analytical capacity secure reliability. From new methods to shorter delivery cycles, the best suggestions often originate not within our walls but in collaborative conversations with dedicated users around the world. This approach keeps us grounded, responsible, and eager to raise standards even further.
We invite any inquiry, technical request, or challenge. In our experience, honest conversations between manufacturer and scientist lead to better chemistry—and more reliable outcomes back at your bench.