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HS Code |
664846 |
| Iupac Name | 1-Aminocyclopentanecarboxamide |
| Molecular Formula | C6H12N2O |
| Molar Mass | 128.17 g/mol |
| Cas Number | 6652-06-6 |
| Appearance | White to off-white solid |
| Melting Point | 123-126°C |
| Solubility In Water | Slightly soluble |
| Smiles | C1CCC(C1)(C(=O)N)N |
| Inchi | InChI=1S/C6H12N2O/c7-6(9)5(8)3-1-2-4-5/h1-4,8H2,(H2,7,9) |
| Pubchem Cid | 57683 |
| Canonical Smiles | C1CCC(C1)(C(=O)N)N |
| Storage Temperature | Store at 2-8°C |
| Synonyms | 1-Amino-1-cyclopentanecarboxamide |
As an accredited 1-Amino-1-Cyclopentanecarboxamide factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | White, tightly sealed, HDPE bottle containing 25 grams of 1-Amino-1-cyclopentanecarboxamide; labeled with hazard information and batch details. |
| Shipping | 1-Amino-1-Cyclopentanecarboxamide is shipped in tightly sealed containers, protected from moisture and incompatible substances. Packages are clearly labeled and handled according to relevant chemical and safety regulations. Transport may require temperature control and secure packaging to prevent leaks or contamination. Shipping complies with local, national, and international hazardous material guidelines. |
| Storage | 1-Amino-1-cyclopentanecarboxamide should be stored in a tightly sealed container, away from light, moisture, and incompatible substances such as strong oxidizers. Store at room temperature in a cool, dry, and well-ventilated area. Ensure the container is clearly labeled, and avoid physical damage. Follow all standard safety procedures for handling chemicals, including the use of appropriate personal protective equipment. |
Applications of 1-Amino-1-Cyclopentanecarboxamide in Industrial ManufacturingWe supply 1-Amino-1-Cyclopentanecarboxamide to specialized sectors that require consistent quality and traceable supply for advanced chemical synthesis, pharmaceutical intermediates, and specialty materials. Our buyers integrate this compound in regulated processes that demand precision for safety and efficacy of downstream products. 1. Pharmaceutical Intermediate SynthesisPharmaceutical manufacturers utilize 1-Amino-1-Cyclopentanecarboxamide as a building block for the production of small-molecule drug candidates, particularly in the synthesis of substituted cyclopentane derivatives. This material supports multi-step organic transformations where stability and reactivity are crucial for yield control. Formulation scientists select it for its amine and amide functional groups, which facilitate targeted coupling reactions in API (active pharmaceutical ingredient) development. The compound enters the process as an early-stage intermediate, ensuring consistent purity and batch reproducibility required for drug registration and scale-up. Industry compliance standards
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2. Fine Chemical Synthesis (Advanced Organic Building Block)Producers of advanced intermediates in the fine chemicals sector source this compound as a key, structurally unique amine. Its cyclopentane backbone with both amide and amino functionality allows for specialized transformations such as selective N-acylation and heterocycle construction. The material is especially important for manufacturers developing proprietary ligands, stabilizers, and specialty monomers for use in further synthesis. QC labs audit all lots for defined purity and trace-level byproducts to guarantee compatibility with sensitive downstream organometallic processes. Industry compliance standards
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3. API Process Development and OptimizationProcess development teams at pharmaceutical firms incorporate this raw material in route scouting and scale-up of APIs that feature rigid cyclopentane motifs. Its defined stereochemistry and bifunctional structure are leveraged to improve yield and selectivity in multi-step syntheses. Chemists optimize its charge and addition by tailoring pH, reagent ratios, and solvent systems to minimize byproducts and maximize downstream API purity. Adoption follows stringent documentation to meet data integrity and reproducibility mandates across batch and pilot production. Industry compliance standards
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4. Research & Discovery Chemistry (Medicinal and Materials Science)Academic and industrial R&D labs purchase this compound to design and evaluate new cyclopentane-based scaffolds in both medicinal and materials chemistry. Its dual functionality offers synthetic flexibility for creating analogs and conjugates in lead optimization or surface modification studies. Researchers exploit its unique geometry to probe SAR (structure-activity relationship) in bioactive molecule libraries or to prepare new materials with improved rigidity and functional group density. High-purity supply, accompanied by CoA and spectral data, supports reproducibility for publication and patent filing requirements. Industry compliance standards
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Every batch of 1-Amino-1-Cyclopentanecarboxamide comes from a process shaped by years of hands-on manufacturing. What we’ve learned, working right at the reactors and distillation columns, cannot be replaced by theory. This compound, as we’ve produced it, goes by the basic chemical formula C6H12N2O, but the true value lies deeper than atomic symbols. People working with this substance quickly see its differences compared to simple alkyl amides or basic amino acid derivatives. The backbone is a five-membered cyclopentane ring, which brings improved chemical stability and a unique spatial arrangement. These details matter when scale-ups shift from glassware to drums and reactors, where issues like solubility and control of side reactions come front and center.
Producing 1-Amino-1-Cyclopentanecarboxamide in our own facility means every run gets monitored for purity, moisture content, and residual solvents. We’ve seen some suppliers take shortcuts— sometimes leaving higher than necessary levels of starting material or isolating crude intermediates. We put in those extra hours at the centrifuge and the dryer because these steps impact downstream performance. Chemists in our plant can pick up on subtle cues that help confirm a reaction has gone to completion: a shift in viscosity or a distinct, sharp melting point. These observations come from direct contact, not just reliance on HPLC or NMR. As a result, the product we ship allows researchers and formulators a straightforward path to reproducible results.
Over the years, we’ve fielded countless calls about isolation, storage, and reactivity. One recurring question concerns how this compound handles moisture. Cyclopentane’s rigid structure makes the amide bond less prone to hydrolysis compared to linear carboxamides or other open-chain alternatives. The crystalline form we deliver stores well under standard warehouse conditions, without aggressive desiccation or deep refrigeration.
Customers also want to know how the amino group behaves in coupling and derivatization reactions. 1-Amino-1-Cyclopentanecarboxamide presents both nucleophilic and electrophilic character, opening doors for peptide synthesis, heterocycle formation, and other transformations. Unlike cyclohexyl analogs, this molecule slots into structures without introducing excessive steric bulk. During hydrogenation or acylation, lab and plant techs regularly comment that our product shows high consistency in yield. These differences become visible only after several reactor charges—small deviations in purity can translate to wasted resources, failed reactions, or additional purification steps.
Years in this industry teach you that purity is not just a lab value you jot down. Small impurities can cripple a large-scale process. Our plant runs on careful monitoring of every critical stage, using manual checks in tandem with modern analytical tools. On a bad day, a poorly carried out isolation step might leave behind impurities that compromise ongoing projects. On a good day, our team gets ahead of any problem through vigilant sampling and a refusal to cut corners. It’s easy to underestimate the value of experience here. We’ve watched newcomers try fancy protocols only to realize that reliable equipment cleaning and record-keeping save more batches than the newest automated sampler ever could.
You’ll find general purity guidelines on many product listings. What’s missing is the reason behind these standards. By controlling moisture, particle size, and trace metal content, we see direct returns in reactivity and reduced waste, batch after batch. Our protocol focuses on practical attributes—the compound’s ability to disperse evenly, dissolve rapidly in common solvents, and resist caking during long-term storage.
Packagers in our warehouse provide us daily feedback. The texture and flow properties during drum filling can reveal a lot about a batch’s drying profile. Our data shows a tighter particle size distribution means smoother handling and less loss during transfer. It also cuts down waste on the customer’s end, trimming cleaning and reprocessing costs. When we compare this with competing products, users mention fewer clogs in feeder lines and more predictable dispensing in automated systems.
Our technical team watches for where this compound gets the most interest. In the lab, it’s a favorite for designing rigid building blocks in medicinal chemistry, because the cyclopentane ring imparts target molecules with fixed geometry. That helps optimize receptor binding, critical for drug discovery. Downstream, peptide chemists rely on it not just as a novelty, but for practical advantages. They see more reliable coupling efficiencies and less byproduct formation—feedback we collect regularly from conversations, not just customer surveys.
Industrial users cite robust batch-to-batch consistency as a key advantage, especially when scaling pilot programs into full production. A pharmaceutical manufacturer shared that having a single, reliable source lets them focus more on downstream chemistry than on troubleshooting raw material issues. This saves costly man-hours and reduces troubleshooting time.
Fine chemical producers experimenting with new heterocyclic compounds often comment on the flexibility of the amino group for unique cyclizations. In process development meetings, someone always asks how well a compound tolerates heat, pressure, or acids. Our records and customer anecdotes demonstrate that 1-Amino-1-Cyclopentanecarboxamide withstands brief thermal excursions better than open-chain analogs, thanks to its rigid ring. This stability helps expand its scope in stepwise syntheses, where reducing intermediate decomposition is essential for overall yield.
Experience with related cycloalkane-based amides underlines their unique behavior compared to alkyl or aryl variants. Slight differences in ring size change how a molecule moves through a synthetic process. The five-membered ring in 1-Amino-1-Cyclopentanecarboxamide is just large enough to influence backbone rigidity, but small enough to remain accessible to common reagents. Chemists working with cyclohexane derivatives sometimes report challenges with steric hindrance; our material, by contrast, fits more seamlessly into diverse chemistries.
Commercial-grade sources sometimes skip purification steps, especially with tight margins. We approach this with a long view: every corner cut today causes trouble tomorrow for both the manufacturer and the user. We draw a line at full characterization, including trace residual solvents and metal ions, not just basic purity. Our own scale-up trials regularly confirm that extra care on the front end reduces unforeseen issues in the months ahead.
Access to high-quality raw materials makes or breaks any advanced chemical synthesis. We source our inputs based on years of supplier relationships, sticking with partners who can deliver reliable lots and respond if anything seems off-spec. During the last global disruption, raw materials for cyclic amides became tougher to secure, showing how critical supply chain resilience is. We doubled down on local and redundant sourcing—not because it sounded nice on a brochure, but because we’ve been stuck with shut-down lines before. This risk doesn’t disappear just because the market is calm today.
Another challenge comes from regulations. Our production lines work under strict oversight, and audits from authorities keep us sharp. We see regulations evolving all the time; keeping documentation and real-time monitoring in place has saved us from costly recalls and legal headaches. Conversations with other manufacturers confirm that investing in compliance teams pays off, even for compounds with relatively straightforward profiles like 1-Amino-1-Cyclopentanecarboxamide.
We don’t produce 1-Amino-1-Cyclopentanecarboxamide in isolation. User feedback shapes how we approach each batch. One peptide house flagged issues with a competitor’s off-white powder clumping in humid environments. We responded by adjusting our own drying steps, installing a new vacuum filtration setup, and monitoring for trace water. Now, our users rarely report the same problem.
Similarly, a specialty resin company noted the amide’s reliable solubility in less polar solvents—prompting us to expand test protocols beyond standard aqueous systems. Sharing those findings with end-users resulted in process tweaks that boosted efficiency. These learnings don’t come from presentations or data sheets; they come from rolling up sleeves and engaging with the real problems faced during synthesis, scale-up, and finished product application.
Ask any plant operator about the biggest headaches on the job, and reproducibility will rank near the top. A minor shift in input purity, pH, or drying time can make a world of difference. We keep extensive records for every lot, not just because audits require it, but because historical data consistently improves future outcomes. Our in-house team can spot microtrends—like a tiny shift in particle size or trace impurity profile—sometimes months before a customer ever sees a problem. Addressing these early prevents bulk rejection or lost production time.
This approach to process monitoring and improvement keeps our facility running smoothly and lets our customers move from R&D to finished product with fewer headaches. We send out regular updates based on direct experience, not generic guides, so users can adjust their own systems as needed.
Working closely with researchers means new applications for 1-Amino-1-Cyclopentanecarboxamide emerge regularly. Our team is constantly evaluating alternative work-up methods, greener solvents, and waste reduction strategies. Every time someone proposes a more efficient washing solvent or a faster crystallization step, we test it ourselves before making any formal change to the process.
We put real weight on customer suggestions for new grades or forms, such as finer powders for high-throughput screening systems, or custom blends prepared for direct use in reactors. These tweaks don’t happen instantly—each requires trials at the bench and on the plant floor before we update standard protocols. We log every test result and customer comment, so we have a large knowledge base to guide next steps.
Too often, buyers get burned by purchasing on price alone, ending up with inconsistent quality, shipment delays, or poor technical support. Years spent troubleshooting other suppliers’ material has shown us the value of investing in hands-on process improvements. We focus on delivering a product that behaves the same from drum to drum, not just on meeting a minimum spec. This reliability saves time and resources across the supply chain, benefitting everyone from startup teams to seasoned process engineers.
From our vantage point, 1-Amino-1-Cyclopentanecarboxamide fills a unique niche as a high-integrity intermediate. Medicinal chemists tell us the rigid ring structure limits conformational flexibility, leading to tighter SAR (structure–activity relationship) data and fewer off-target effects in drug screening. That’s something you appreciate after spending years isolating hits from noisy data. Academic collaborators also appreciate the compound’s balance of reactivity and physical stability, especially in projects with limited budgets and no room for failed syntheses.
In process chemistry, the reliability of the amide group during multi-step syntheses saves valuable time. Each isolated intermediate carries forward fewer contaminants, and operators report smoother extractions and less clogging at the filter press stage.
Producing 1-Amino-1-Cyclopentanecarboxamide involves more than ticking boxes on a checklist. Every step comes from experience—trial, error, analysis, and adaptation. The relationships built up over years with raw material suppliers, the lessons learned from customer troubleshooting, and the time spent perfecting isolation and handling make this compound more than just a line item in a catalog.
Anyone moving bulk quantities or tweaking reactions at the bench relies on invisible layers of planning and practical know-how. We build that directly into our offering, delivering not just a product, but a package of real-world experience and support. Every shipment that leaves our facility carries forward this belief: consistent quality and open communication remain the foundation of modern chemical production.