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HS Code |
108619 |
| Productname | 2-Amino-2-Norbornanecarboxylic Acid |
| Casnumber | 5337-93-9 |
| Molecularformula | C7H11NO2 |
| Molecularweight | 141.17 g/mol |
| Meltingpoint | 274-278°C |
| Appearance | White to off-white solid |
| Solubility | Slightly soluble in water |
| Purity | Typically ≥98% |
| Smiles | OC(=O)[C@@]1(CC2CCC1C2)N |
| Inchi | InChI=1S/C7H11NO2/c8-7(6(9)10)4-2-1-3-5(4)7/h4-5H,1-3,8H2,(H,9,10)/t7-/m1/s1 |
| Storageconditions | Store at 2-8°C |
| Synonyms | Endo-2-Amino-norbornane-2-carboxylic acid |
| Ecnumber | 258-650-0 |
As an accredited 2-Amino-2-Norbornanecarboxylic Acid factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The packaging contains 5 grams of 2-Amino-2-Norbornanecarboxylic Acid, sealed in a labeled amber glass bottle with tamper-evident cap. |
| Shipping | 2-Amino-2-Norbornanecarboxylic Acid is shipped in tightly sealed containers, protected from moisture and light. It is handled as a non-hazardous solid under standard shipping regulations. Ensure packaging integrity to prevent contamination. Store in a cool, dry place during transit. Accompany shipments with appropriate documentation and labeling per local and international guidelines. |
| Storage | 2-Amino-2-norbornanecarboxylic acid should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area, away from moisture and incompatible substances such as strong oxidizers. Store at room temperature and protect from excessive heat and direct sunlight. Follow all chemical hygiene and safety protocols to prevent contamination, degradation, or accidental exposure. |
Applications of 2-Amino-2-Norbornanecarboxylic Acid in Industrial Manufacturing2-Amino-2-norbornanecarboxylic acid is a highly specialized bicyclic amino acid intermediate, valued for its structural rigidity and unique chemical reactivity in advanced manufacturing sectors. Our production ensures consistent purity for demanding downstream operations. Below, we detail established applications across targeted industrial domains. 1. Chiral Building Block in Pharmaceutical API SynthesisPharmaceutical manufacturers utilize this compound as a chiral auxiliary or intermediate to construct enantiopure building blocks, particularly in the synthesis of antiviral and central nervous system APIs. The rigid norbornane skeleton imparts stereochemical integrity during asymmetric transformations, crucial for drugs requiring specific three-dimensional arrangements. Integration occurs in early-stage route design, where its compatibility with amide and ester bond-forming reactions enables control over final API configuration without introducing extraneous stereocenters. Industry compliance standards
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2. Peptide Synthesis for Biotech Research ToolsPeptide manufacturers incorporate this constrained amino acid to study conformational effects or enhance the proteolytic stability of synthetic peptides. Its rigid cyclic structure results in analogs with defined secondary structures, serving as standards in protein engineering and bioassay control peptides. This application sees process integration at the automated solid-phase synthesis stage, where the amino acid is coupled using standard Fmoc or Boc strategies, requiring precise handling due to steric hindrance during coupling steps. Industry compliance standards
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3. Advanced Polymer Modifier for High-Performance MaterialsSpecialty polymer producers leverage the norbornanecarboxylic amino acid as a monomer modifier in copolymer formulations demanding increased thermal stability and decreased chain mobility. The rigid structure imparts microdomain ordering in block copolymers and improves resistance to stress cracking. This compound enters melt or solution-based polymerization systems, often during initial feed blending, where its compatibility with amine-reactive co-monomers is exploited to create functionalized or cross-linked architectures for niche applications in electronics and coatings. Industry compliance standards
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4. Structural Scaffold for Heterocyclic Agrochemical SynthesisAgrochemical innovators use 2-amino-2-norbornanecarboxylic acid as a rigid template for developing new classes of crop-protection agents. The ring system directs formation of heterocyclic motifs essential for selective binding at biological targets. Intermediate introduction typically occurs during multi-step heterocycle assembly, where its stability under various conditions supports downstream chlorination or alkylation. Final formulations target improved soil stability and bioavailability profiles. Industry compliance standards
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As a chemical manufacturer with decades of hands-on experience, seeing the evolution of specialized amino acids has been remarkable. Among all the building blocks on the market, 2-Amino-2-Norbornanecarboxylic Acid carves out a special place. This compound stands out with its rigid bicyclic structure, offering chemists a foundation for molecular architecture that conventional amino acids just can’t match. For labs pushing the boundaries in peptide synthesis or looking for next-gen chiral auxiliaries, this material brings both creativity and discipline to the synthesis process.
Consistency ranks high with those using this product. Our production focuses on purity, reproducibility, and batch-to-batch reliability. You find colorless crystalline powder with a carefully controlled melting point. Moisture and residual solvents do not linger, thanks to well-established purification steps. Spectroscopic data, especially 1H NMR and IR analysis, consistently confirm the compound’s integrity. Attention to these details means our 2-Amino-2-Norbornanecarboxylic Acid does not throw unexpected curveballs when it joins a complex synthesis.
The molecular formula C7H11NO2 gives a sturdy backbone for further modifications. Molecular weight sits comfortably for most scale needs. Chiral centers remain uncompromised, which is critical for researchers who need confidence that the starting point isn’t introducing stereochemical variability. Solubility strikes a balance: it dissolves in polar solvents like water and methanol, yet resists unnecessary decomposition across a broad pH and temperature range. This stability becomes apparent the first time you store the product for months, then return to use it with the same results.
Those who work on peptide chemistry soon bump up against the challenge of conformational rigidity. Flexible side chains invite uncertainty, complicating synthesis and analysis by introducing unwanted by-products. 2-Amino-2-Norbornanecarboxylic Acid brings a distinct, locked-in geometry. Polymer chemists and peptide designers use this feature to steer peptides toward alpha-helical or beta-turn forms, eliminating the sloppiness seen with more mobile amino acids. The rigid scaffold turns a potentially floppy region into a reliable anchor, supporting reproducible biological testing and downstream modification.
Researchers focusing on drug design value this compound for its ability to introduce non-natural chirality. The norbornane ring resists enzyme breakdown, so peptide analogues assembled with this building block stick around in biological systems much longer than those using typical glycine or alanine. That extra time in the system translates to opportunities in slow-release drugs or protease-resistant enzyme substrates.
In everyday research projects, this material regularly shows up as a critical linker or as a key monomer within novel material science investigations. For instance, polymers requiring a defined spatial arrangement benefit from its highly structured skeleton. Analytical chemists use it in calibration standards and reference materials, taking advantage of its stability during both long-term storage and repeated handling.
Compared to standard alpha-amino acids, 2-Amino-2-Norbornanecarboxylic Acid immediately stands out due to its three-dimensional ring system. Most conventional amino acids feature open-chain structures, which can result in unpredictable folding or molecular dynamics. Fewer degrees of freedom in the norbornane-based backbone mean synthetic peptides or polymers exhibit less variability, improving the accuracy of structural and biological studies.
Customization remains possible without trading away mechanical strength. Stereochemists appreciate that both enantiomers are accessible, but more importantly, both versions feature consistent diastereomeric purity in our batches. Few raw materials deliver this combination of chiral precision and chemical stability. For those seeking reliable scale-up and minimal analytical surprises during regulatory submission or quality control, this amino acid helps sidestep costly retests.
On the safety front, unlike aromatic analogues, our product shows little tendency toward hazardous reactivity under lab conditions. Thermal stability holds up, both in solid state and in solution, so accidental decomposition releases far less hazard potential. Shelf life has been measured in years, and the material resists airborne contamination that can play havoc with sensitive research.
Too often, specialty amino acids become a bottleneck. Either synthesis runs into yield problems, or purification eats up precious time. Over years of process refinement, we have streamlined both the upstream synthesis and downstream isolation so that availability does not become a limiting factor. Practically, this means project deadlines do not slip due to supply shortfalls, and research teams keep momentum.
Peptide chemists praise the unmistakable performance difference when they replace a traditional residue with 2-Amino-2-Norbornanecarboxylic Acid. Aggregation during solid-phase peptide synthesis drops. Final purification requires fewer cycles. Characterization, especially by HPLC or mass spectrometry, reveals cleaner profiles with reduced side-products. Over the arc of a project, these tangible benefits translate into fewer failed batches and more productive data generation.
Chiral catalyst designers recognize another critical advantage. The norbornane skeleton creates steric shielding, enabling selectivity in transformations that require precise control over reagent access. Metal complexation often proceeds more smoothly, with well-defined structures that prove easier to characterize and optimize. Benchmarking against open-chain amino acids, the gap in control and reliability grows even wider.
Manufacturers producing specialty pharma intermediates turn to this compound for customizing molecular switches and advanced labeling. Its stability in the presence of strong acids and bases allows it to withstand aggressive reaction conditions that destroy less robust residues. Carboxyl functionality remains available for further coupling or modification, expanding the toolbox for creative synthetic strategies.
Academic labs use this product in mechanistic studies, particularly those exploring constrained conformations. Results consistently show improvements in data reproducibility and clarity of NMR spectra, as the rigid structure restricts conformational averaging. This leads to faster progress in structural elucidation, especially in challenging peptide or foldamer systems.
A growing number of industrial clients now use this building block for bioconjugation chemistry in therapeutic and diagnostic products. The ring system provides a molecular handle that resists premature breakdown or rearrangement, supporting safer and more stable delivery systems. In formulation work, this translates into superior product shelf life and predictable performance.
Producing 2-Amino-2-Norbornanecarboxylic Acid at scale demands close attention to each processing step. Early in our development history, we found that traditional routes generated variable yields and inconsistent optical purity. Over numerous cycles of optimization, we developed a process that reliably produces high-purity material with excellent recovery.
By investing in on-site analytical testing, quality checks now track key parameters like stereochemical purity, moisture content, and thermal stability right from the initial synthesis through to finished packaging. Instead of relying on outside confirmation, each batch can be supported with in-depth documentation and data, increasing trust during regulatory submission or product development reviews.
Because experienced chemists staff our lab and plant, production never takes shortcuts with solvent recovery, temperature control, or waste management. The environmental impact remains low through tailored recycling of raw materials, and strict adherence to elemental impurity limits further enhances pharmaceutical suitability. Over years of operation, these practices have reduced both process risk and long-term waste, ensuring continued availability in a field often marked by global supply unpredictability.
Any chemist who has scrambled for a stable supply of specialized materials knows that interruptions can end up costing months on a project timeline. We tackle these problems by holding buffer inventory and maintaining clear lines of communication with end-users. Drawdowns on lead times or strategic expansion of batch sizes begin sometimes before a client even asks, based on past ordering patterns and collaborative forecasts.
Because we receive feedback from a network of labs and industrial partners, production isn’t isolated from real-world needs. If an application needs a specified particle size for a new formulation, adjustments in milling and sieving come online without unpredictable delays. If a region requires certification for additional regulatory standards, traceability and compliance data can be provided. Direct conversations with working chemists shape how we package, label, and present this compound, reflecting not just technical performance but the flow of daily laboratory work.
Just as molecular structure isn’t static, our approach adapts constantly, informed by both feedback from scientific partners and regulatory developments. Emerging research now asks more from designer amino acids: greater stability, lower trace metals, and higher stereo integrity even at larger scales. Each time a new benchmark appears, our process adapts. Whether it’s swapping out older catalysts to cut by-products or tightening up in-process controls, productivity and reliability grow with every production run.
Open dialogue with research teams reveals the changing horizons in materials science and biotech. Increasingly, clients integrate 2-Amino-2-Norbornanecarboxylic Acid into proprietary modalities—targeted protein degrader platforms, biomaterials for regenerative medicine, or diagnostic kits for global disease surveillance. The demand creates a feedback loop. Problems or bottlenecks get reported, solutions get tested, and the product’s robustness extends with each practical challenge encountered.
Specialty chemicals sometimes earn a reputation for volatility in both price and availability, especially as global supply chains face stress. Direct engagement with sourcing partners and logistics teams helps protect our product pipeline from the ripple effects of raw material shortages. Rather than chasing spot-market supplies, long-term agreements and established relationships backstop critical intermediates needed for production of 2-Amino-2-Norbornanecarboxylic Acid.
Volume flexibility also counts. University labs and major pharmaceutical manufacturers rarely operate on the same scale. Instead of forcing a one-size-fits-all MOQ, we accommodate custom sizing for both low-gram discovery work and multi-kilogram scale-ups. This level of supply chain responsiveness reduces overbuying and short shelf-life waste, providing flexibility without periodic supply gaps.
We keep an eye on downstream needs, too. Whether a formulator looks for a specific granulation for automated systems, or a start-up biochemist requires smaller, faster shipments, our operations adjust to meet these real-world timelines. Rather than focusing on static price points, value surfaces in reliability: fewer purchase red-flags, faster lead times, and a reduction in unpredictable project delays.
Anyone with some research under their belt knows that marketing can’t make up for poor batch quality or low performer compounds. We anchor our reputation in repeat business with scientists and R&D managers who have tested and re-tested this material in demanding settings. By keeping batch records, analytical certifications, and even pilot-scale feedback close at hand, troubleshooting becomes a shared effort—not a blame game that wastes valuable time.
Unexpected results can derail a project fast. Our technical team regularly keeps lines open for troubleshooting, sometimes long after the purchase order clears. Whether supporting method development with sample spectra, advising on cleaning protocols, or just walking through best practices for solubilization, our focus stays on helping users realize the full potential of the material.
The future trajectory of polypeptide and bioconjugation chemistry leans heavily on robust, reliable specialty building blocks. 2-Amino-2-Norbornanecarboxylic Acid offers a blend of rigidity, chemical integrity, and straightforward handling unmatched by typical analogues. As research expands into modalities demanding more precise control and longer-lasting function, we believe investment in quality and adaptability bears fruit, both in daily lab work and in the breakthroughs sure to transform pharmaceuticals, materials science, and biochemical engineering.
Even as regulatory and technological demands climb, hands-on production experience continues to bridge the gap from bench to market. The challenge then shifts from merely meeting purity requirements to exceeding them, so both innovative research groups and established manufacturers can stake their next step on a compound—and a supplier—that delivers.