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HS Code |
311220 |
| Product Name | N-Trifluoroacetyl-D-Glucosamine |
| Cas Number | 57925-41-2 |
| Molecular Formula | C8H12F3NO6 |
| Molecular Weight | 275.18 |
| Appearance | White to off-white powder |
| Melting Point | 143-146 °C |
| Purity | >98% |
| Solubility | Soluble in water and DMSO |
| Storage Temperature | 2-8 °C |
| Synonyms | N-TFA-D-GlcNAc, N-Trifluoroacetyl-D-glucosamine |
As an accredited N-Trifluoroacetyl-D-Glucosamine factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The 25g N-Trifluoroacetyl-D-Glucosamine comes in a sealed amber glass bottle with a tamper-evident screw cap and clear labeling. |
| Shipping | N-Trifluoroacetyl-D-Glucosamine is shipped in tightly sealed containers under cool, dry conditions to prevent moisture absorption and degradation. Packaging complies with chemical safety regulations, ensuring protection from light and physical damage. Transportation is typically via ground or air freight, with clear labeling and appropriate documentation for safe and compliant handling. |
| Storage | N-Trifluoroacetyl-D-Glucosamine should be stored in a tightly sealed container, protected from moisture and light, at 2-8°C (refrigerator temperature). Store in a cool, dry, and well-ventilated area away from incompatible substances such as strong oxidizing agents. Ensure proper labeling and handle under an inert atmosphere if necessary to maintain stability and prevent degradation. |
Applications of N-Trifluoroacetyl-D-Glucosamine in Industrial ManufacturingAs a dedicated manufacturer, we supply N-Trifluoroacetyl-D-Glucosamine for advanced industrial and pharmaceutical synthesis. This specialty raw material supports several critical downstream sectors where precise functional group chemistry and rigorous compliance are essential. Below we detail proven application scenarios, each reflecting unique processing requirements, specific regulatory standards, and directly relevant finished products. 1. Glycopeptide Antibiotic Intermediate ProductionN-Trifluoroacetyl-D-Glucosamine serves as a protected monosaccharide building block in the convergent synthesis of select glycopeptide antibiotics. This raw material is incorporated during the glycosylation step, where the trifluoroacetyl group ensures stereoselective coupling and temporary protection of amine functions, thus allowing for controlled deprotection downstream. Manufacturing operations in this sector require strict batch record documentation, cleaning validation, and in-process purification control to ensure downstream antibiotic API quality, traceability, and release for regulated markets. Industry compliance standards
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2. Carbohydrate-Based Vaccine Antigen SynthesisLeading vaccine developers utilize this material when synthesizing defined oligosaccharide antigens for conjugate vaccines targeting bacterial pathogens. The N-trifluoroacetyl protecting group enables highly selective modifications of glucosamine units, which are subsequently linked to carrier proteins. Handling involves multi-step, GMP-controlled synthesis lines with full documentation for traceability and impurity profiling, as these intermediates proceed directly to highly regulated biopharma production lines. Industry compliance standards
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3. Specialty Glycan Synthesis for Biological Research ReagentsManufacturing companies specializing in glycan arrays and analytical glycoscience tools adopt this raw material as a temporary protecting group donor, enabling the controlled synthesis of well-defined N-acetylglucosamine derivatives. Laboratories rely on these reagents for investigating carbohydrate-protein interactions and glycosylation patterns in biomedical research and diagnostics. Stringent batch reproducibility, low endotoxin content, and analytical confirmation are routine requirements prior to shipment to reference labs and life science suppliers. Industry compliance standards
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4. Synthesis of N-Trifluoroacetyl-Labeled Carbohydrate Tracers for Analytical ApplicationsProducers of analytical reagents and reference standards employ this compound to prepare isotopically labeled sugars used as internal standards in quantitative mass spectrometry. Its N-trifluoroacetyl functionality delivers unique mass signatures while maintaining chromatographic behavior similar to native derivatives. Quality systems in this sector emphasize traceability of isotope purity, accurate labeling degree, and exclusion of by-products to guarantee standardized performance in clinical and food safety testing labs. Industry compliance standards
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From years of producing N-Trifluoroacetyl-D-Glucosamine at full industrial scale, this molecule reveals a craft that extends far beyond the routine output of chemical intermediates. Our manufacturing teams work closely with process engineers to deliver a reagent prized not only for its unique protection profile in carbohydrate chemistry, but also for its reliability in the face of increasingly demanding customer synthesis targets.
The current model in production, referenced across customer communications as TFAc-GlcN, draws attention for its high purity rate, reproducible crystalline form, and batch-to-batch consistency. Feedback from medicinal chemistry laboratories and oligosaccharide manufacturers highlights the difference between our process-controlled triazole-activation and older methods still lingering in the market, in which solvent residues and inconsistent product forms often raise downstream headaches.
Every kilo of N-Trifluoroacetyl-D-Glucosamine in our facility comes from careful stepwise synthesis, followed by aggressive quality control testing. Crystallization, filtration, and thorough drying limit the presence of moisture—a notorious enemy of acylated aminosugar building blocks. Technicians monitor for subtle color shifts during synthesis, since even a tinge of yellow usually betrays process drift or reagent carryover. We designed our lines to automate as much as possible without losing hands-on oversight. Our chemists often remark that the distinctive sharp odour from our pure TFAc-GlcN signals that the final stage, not just analytical numbers, confirms a clean conversion.
We learned early that residual solvents such as dichloromethane or acetone in the recrystallization step could alter melting point and shelf stability. Clients in the glycopeptide sector quickly detect this kind of flaw, since unrecognized volatiles fog their NMR readings and stall project milestones. We track solvent levels with annual improvements to our removal protocols, not just to keep certificates of analysis compliant, but to support the bottom-line results for our clients’ development teams. This insistence on full drying, without raising degradation, pushes our energy and time investments higher than the average tolling shop.
Our most in-demand model, TFAc-GlcN batch 120X series, delivers a typical assay above 99% by HPLC, with less than 0.2% water content and no detectable non-volatile residues. Chemists who choose our material for solid-phase synthesis point out that the crisp white free-flowing powder ensures accurate mass measurements and accelerated dissolution. Every run is mapped to a comprehensive traceability record, so clients receive not just a number, but assurance grounded in traceable performance history.
Scale matches demand: from test-lab bottles up to tens-of-kilograms industrial drums, we control the entire fill line. Every unit passes through manual and automated sieving, keeping clump formation within commercially acceptable limits. Though the molecule itself resists many conventional analytical signals, we validate each lot with tandem silica- and reverse-phase methodologies, plus FT-IR confirmation. These are not mere symbolic gestures. Bare-minimum testing or abstract spec phrases rarely satisfy the experienced carbohydrate chemist, who understands how minor batch variations lead to major application delays or failed multi-step syntheses down the road.
Modern drug discovery leans heavily on selective functionalization—N-Trifluoroacetyl-D-Glucosamine occupies a central position for assembling protected oligosaccharides, glycopeptides, and designer glycosides. Its trifluoroacetyl group offers stable amine protection under standard base and acid conditions. With a boiling point measured to avoid cross-contamination at scale, the compound supports robust process flows. Our clients in custom oligonucleotide research count on this chemical to streamline their coupling reactions: the TFAc group resists hydrolysis and exchange more than alternative acyl protecting groups like acetyl or benzoyl.
Beyond synthetic value, several industrial partners in specialty polymers use this intermediate as a foundation for advanced functional materials where fluoride-labeled building blocks track polymerization or introduce distinct physical properties. We have seen our N-Trifluoroacetyl-D-Glucosamine enable new classes of imaging agents, bioorthogonal probes, and carbohydrate-based catalysts, especially among development groups working with radiolabeled isotopes or sensitive biomolecule assemblies. Even when end-users request unusual handling formats—like pre-measured sealed tubes for glovebox work—our team adapts with short lead times, since our bulk process reserves allow flexible packaging without quality compromise.
Many academic researchers approach us with nuanced requirements: NMR-pure samples for mechanistic carbohydrate research, lots devoid of any sodium residue, or larger particle size to ease filtration in multi-step syntheses. Our quality and R&D teams regularly field such requests, recognizing that intellectual property protection for new oligosaccharide motifs depends on trace impurity levels. Even pharmaceutical validation work for regulatory submission often pivots on a supplier’s willingness to provide reproducible analytical data over multiple lots, not just one well-behaved pilot batch. Our own investment in process data archiving and real-time query capability emerged through these tight academic and pharma collaborations.
Clear distinctions separate N-Trifluoroacetyl-D-Glucosamine from other protected analogues, such as N-acetyl-, N-benzoyl-, or even N-carbamoyl-glucosamine. In repeated feedback from diagnostics and pharmaceutical groups, stability during both acid and base deprotection sets the trifluoroacetyl version apart. While N-acetyl counterparts decompose or undergo unwanted elimination under typical oligosaccharide assembly protocols, the trifluoro derivative absorbs process stress, giving synthetic chemists a longer working window. This stability gives chemists room to run reactions at temperatures or solvent combinations that would destroy more fragile analogues.
Certain legacy suppliers still provide only generic assay disclosures, with little attention to polymorph control or batch size variability. We invested early in in-line spectral verification and multi-angle particle imaging, allowing our customers to adjust process designs for both batch and continuous manufacturing. Where competitors sometimes target research-only scale with minimum scrutiny, our operational philosophy responds to the needs of industrial labs who demand ongoing, guaranteed access to the same molecular form year after year.
Solubility in a range of organic solvents distinguishes our product for users exploring automated robotic reactors or parallel synthetic workflows. Lower solubility analogues risk clogging lines or burdening operators with repeated manual intervention. We target water content because we learned through customer investigations that significant moisture can create adducts or lower initial coupling efficiency, leading to yield losses further down the synthesis sequence. Experienced process managers appreciate a supplier who not only claims a spec, but insists on practical solutions to real-world lab frustrations.
Researchers using N-Trifluoroacetyl-D-Glucosamine often approach us after struggling with inconsistent supplier lots. Several years ago, a mid-size biopharma team sent back a competitor’s batch after detecting haze during dissolution, a direct result of polymeric side products from inexpert acylation. Since then, our quality team has regularly caught trace levels of pentamer and hexamer impurities, pushing us to refine our filtration and recrystallization regimes. Each improvement takes time, adds costs, and uses up valuable staff attention, but process purity and consistency matter more than short-term savings.
Another challenge relates to sensitive purification of minuscule sample quantities. Several university research groups confronted us about the solubility variation between winter and summer production runs, finally traced to minor environmental humidity fluctuations that crept into drying rooms. Re-engineered dehumidification and lot-by-lot Karl Fischer review answered these problems, not vendor-neutral slogans or resting on past achievements. Chemists with real hands-on experience recognize how fast outcomes can go wrong when supply chain partners accept mediocrity just to hit volume targets.
In commercial oligosaccharide synthesis, speed and consistency outrank all other priorities. Any request for emergency resupply draws on our ability to accelerate not just production but post-synthesis vetting, bottling, and labelling. Our longstanding relationships with major pharma partners depend on the certainty that every delivery will meet the same rigorous criteria as the original order. Experienced project managers expect the powder to arrive as ordered and pass their compendial testing on the first try, not after a cycle of return and replacement. From the viewpoint of both bench chemists and procurement leads, the value of our direct manufacturer approach shows itself in every reliable shipment.
Interest in fluorinated carbohydrate building blocks has surged thanks to the push for more sophisticated glycomics tools and the rise of glycan-based therapeutics. Competition comes from new entrants promoting “green” chemistry routes or biosynthetic analogues, yet routine clients report that few peers match the process transparency and open-door technical support we provide. Today’s specialty molecules require not just pure reagents, but responsive manufacturing partners willing to dig into customer-specific challenges on analytical, scale-up, or regulatory fronts.
Production efficiency changes constantly. Process monitoring with in-line IR sensors, automated weighing, and predictive yield planning all help maintain the hard-won stability in what remains a high-touch, detail-oriented business. Without the extravagance of lavish marketing promises, our teams focus instead on relevant details that matter to molecular engineers and synthetic route designers. For example, in drug conjugation, even small solvent artifact peaks in trace GC can disrupt whole development milestones—feedback from failed batches powers our updated training programs and equipment investments, rather than getting brushed under the rug.
Our direct approach means that every stage of N-Trifluoroacetyl-D-Glucosamine production, handling, and logistics comes under continual review. We learned that open feedback channels, real-time problem reporting, and routine plant walkthroughs encourage early detection: deviations can be corrected before they impact the final product or customer timelines. This discipline stretches from raw materials pre-screening down to packaging, shipment tracking, and after-sales batch review meetings.
Through collaborative troubleshooting with pharmaceutical innovators and synthetic chemistry groups, our team often proposes formulation or procedural adjustments to help clients integrate N-Trifluoroacetyl-D-Glucosamine more easily. In some cases, slight pre-warming or controlled humidity transfer resolves lengthy dissolution times or unwelcome powder clumping. These are not one-size-fits-all instructions, but tailored advice reflecting experience in real working labs—where project schedules and grant milestones rely on reliable building blocks. Our experience extends to supporting early phase translation to clinical supply, in which batch homogeneity and analytical backup become non-negotiable.
Looking ahead, we continue expanding analytical depth—adopting NMR and MS cartography to stamp every lot with a detailed molecular signature. This transparency attracts the most demanding partners, who increasingly ask for open file access and cross-lot validation statistics. Our focus remains on the operational essentials: getting batches out on time, with traceable documentation, and chemistry that stands up to the realities of bench and plant scale synthesis.
The story of N-Trifluoroacetyl-D-Glucosamine at our facility is written as much in daily production records as in published journal articles or catalog descriptions. Regular engagement with users—across pharma, biotech, and academic sectors—keeps our technical teams dialed into evolving challenges and new frontiers in carbohydrate chemistry. Success for us never comes from a static set of specifications, but from active, steady attention to feedback, error correction, and long-term partnership.
Where other manufacturers sometimes dilute responsibility downstream, our integrated operation—spanning synthesis through finished product—means that a process deviation can be caught, investigated, and explained by operators who actually produced the lot. Customers frequently reach out about previous synthetic bottlenecks, stability concerns, or requests for unusual solution formats. We judge each case on its specific chemistry and operational impact, communicating directly with end-users, rather than shuffling them through generic call centers or resellers with no direct product knowledge.
As the trusted manufacturer of N-Trifluoroacetyl-D-Glucosamine, we stake our reputation on far more than certificates of analysis. The investments we make in controlled synthesis, deep testing, and customer engagement ensure that those handling the actual chemistry—whether designing the next generation of glycodrugs or optimizing specialty polymers—can rely on the quality in every shipment. We serve both global pharma leaders and small biotech startups, supporting them at each stage with detailed records, application guidance drawn from real case studies, and a commitment to relentless process improvement.
Our experience underscores that N-Trifluoroacetyl-D-Glucosamine is not just a commodity, but a critical enabler for modern carbohydrate chemistry. Each batch encapsulates continuous learning and close collaboration, driving forward both our manufacturing and the ambitions of our clients. As product needs evolve, our approach stays grounded: precise chemistry, full transparency, and direct, actionable solutions.