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HS Code |
417676 |
| Chemical Name | 5-Amino-4-imidazolecarboxamide |
| Cas Number | 61-24-1 |
| Molecular Formula | C4H6N4O |
| Molecular Weight | 126.12 |
| Appearance | White to off-white solid |
| Melting Point | 327-329°C |
| Solubility In Water | Soluble |
| Boiling Point | Decomposes before boiling |
| Density | 1.72 g/cm3 (estimated) |
| Purity | Typically >98% |
| Synonyms | AIC, AICA, AICA base |
| Pka | Around 8.0-8.5 |
| Inchikey | BNNCUECABRZKBB-UHFFFAOYSA-N |
| Smiles | C1=C(NC(=NC1=O)N)N |
| Storage Conditions | Store at room temperature, protected from light and moisture |
As an accredited 5-Amino-4-Imidazolecarboxamide factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The 5-Amino-4-Imidazolecarboxamide is packaged in a 25g amber glass bottle with a secure screw cap and safety labeling. |
| Shipping | 5-Amino-4-imidazolecarboxamide is shipped in tightly sealed containers, protected from light and moisture, and stored at room temperature. It is classified as a laboratory chemical and handled according to standard chemical shipping regulations. Appropriate labeling and safety documentation, such as Safety Data Sheets (SDS), accompany each shipment to ensure compliance and safe handling. |
| Storage | 5-Amino-4-imidazolecarboxamide should be stored in a tightly sealed container, away from moisture and incompatible materials, in a cool, dry, and well-ventilated area. Protect from direct sunlight and sources of ignition. Store at room temperature unless otherwise specified by the supplier. Follow all safety guidelines and local regulations for chemical storage to ensure safe handling. |
Applications of 5-Amino-4-Imidazolecarboxamide in Industrial Manufacturing5-Amino-4-Imidazolecarboxamide is a specialty intermediate critical to multiple advanced manufacturing sectors. As a direct producer, we supply this compound for advanced formulations and technological processes across various industries where compliance, dosing precision, and specific process steps are essential to safety, performance, and product integrity. 1. Pharmaceutical Nucleoside SynthesisThis raw material serves as a key building block in the multi-step synthesis of purine-based nucleoside drugs, including antiviral and anticancer APIs. Customers rely on its high purity to minimize impurities during condensation, cyclization, and phosphorylation stages, where controlled reaction conditions affect nucleoside isomerism and downstream GMP clearance. We supply consistent particle sizing and documented traceability for regulated drug-substance manufacturing under validated process controls. Industry compliance standards
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2. Agrochemical Active Ingredient ManufacturingThe compound is utilized as a precursor in the synthesis of plant growth regulators and select herbicidal agents in the triazole and imidazole families. It enables precise control during ring closure and side-chain functionalization, directly impacting herbicide selectivity and crop safety. Factory-scale operators reference established agrochemical monographs and environmental standards before introducing the material in block synthesis routines. Industry compliance standards
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3. Veterinary Pharmaceutical DevelopmentWithin veterinary drug synthesis, the material enables scalable preparation of nucleic acid derivatives for antiviral therapies and health-promoting supplements for livestock and companion animals. Regulatory manufacturing sites apply stringent veterinary pharmacopeia and GMP controls, with careful material tracking from warehouse to cleanroom processing. Industry compliance standards
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4. Research Biochemical ReagentsResearch institutions and diagnostic reagent companies use the material as a substrate in the custom synthesis of enzyme substrates and nucleotide probes. This enables the creation of calibrated research standards and complex detection kits demanded by life science applications. Strict documentation allows for full traceability to lot and COA for R&D protocol validation. Industry compliance standards
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5-Amino-4-imidazolecarboxamide, known around the lab by its CAS number 61-23-4, holds a special place on the production floor. The powder catches the eye with its slightly off-white color, and every batch pours with a texture that speaks of careful, methodical crystallization. At our plant, technicians monitor the synthesis process from start to finish, running a tight clock from starting materials through purification and packaging. Those extra eyes during recrystallization catch what the machines miss, sharpening the final purity beyond what routine testing expects. Manufacturing at scale means the stakes are higher, but our commitment to quality control deepens with each drum we process.
We stopped thinking of 5-amino-4-imidazolecarboxamide as just another intermediate a long time ago. Its backbone supports custom syntheses for pharmaceuticals, agrochemicals, and specialty dyes. Our clients know a reliable source isn’t just about supply volumes or routine specs printed on a COA. The way each lot responds to analytical scrutiny—infrared spectra, NMR, HPLC profiles—tells buyers more about trust than a thousand product sheets. For anyone drawing up reaction schemes or charting out pilot batches, knowing their imidazolecarboxamide won’t throw in trace aldehydes or variability saves wasted work and lost time.
Some buyers have run into problems with off-color batches or variable melt points. Our team spent years refining the synthesis, optimizing temperature and pressure ramps to minimize impurity formation. We triple-check every lot for unidentified byproducts that can interfere downstream. Even if it’s just a percent or two outside the norm, our technical crew questions every anomaly, going back to batch records and reactor logs. There isn’t room for sloppy chemistry where regulatory filings or custom syntheses depend on molecular consistency.
The interest in 5-amino-4-imidazolecarboxamide ramped up again as research in oncology and metabolic diseases led to fresh demand for nucleoside analogs and kinase inhibitors. Our manufacturing lines scaled to keep pace. We upgraded our reactors, tracking every critical parameter year after year, watching yields climb and offcuts shrink. We realized the finer grades weren’t only for pilot plants—big commercial runs needed the same attention to trace residuals and water content, whether the end use was a GMP project or a new research project at a university lab. Our team knows production scale changes the risks, but it’s often smaller details—like the right grade of drying agent or precise control during neutralization—that separate consistent supply from repeated delays.
Most requests center around 5-amino-4-imidazolecarboxamide with a minimum purity target of 99%, often analyzed by HPLC and NMR. We send out full analytical profiles, not just numbers scratched onto a form. Lots range from a few kilos to full pallet loads, with packaging tailored for both bulk transport and precise weight dispensing. Moisture content comes in low, usually under 0.5%, and we never ship without confirming the absence of volatile organic residues. We measure the bulk density batch-to-batch because the way this flows through a reactor, or a hopper, often matters more than what the spec sheet claims about solubility.
One thing big buyers tell us: They like being able to request tighter specs on key trace metals or residual solvents. Not every synthesis needs that, but for the tightest process controls, we keep backup samples from every production lot and run further tests if needed. If a client needs stability data over longer storage, our team pulls retention samples and does six-month or yearly retests to catch any rare degradants that could compromise pharmaceutical work.
It’s easy to assume every source is the same. Our own early batches, and a few competitor imports, showed us not all powders behave alike. Typical issues pop up: inconsistent color, more water uptake than expected, or batch-to-batch odor differences. Our plant kept records and matched these to raw material sources, discovering that starting material quality and reactor cleaning routines drastically changed outcomes. We invested in closed-system reactors and higher-purity solvent streams even though it meant higher short-term costs. In the end, these upgrades dropped rework rates and kept the color and odor consistent, raising customer trust.
As a manufacturer, we see inexperienced suppliers risk cross-contamination with imidazole derivatives when switching products too quickly. Our plant dedicates lines and cleaning protocols to each category of imidazole intermediates. This pays back with single-use certificates and the highest purity runs. It’s easy to buy low-purity shortcuts, but they create headaches down the line, from fouled downstream columns to unexplained process stalls. We account for this in our pricing but also in our support: customers know they aren’t buying from a faceless trader but from a team involved in every step, from synthesis to loading dock.
Every chemist remembers a batch that failed because of a subpar intermediate. Our regular clients in pharmaceutical R&D rely on 5-amino-4-imidazolecarboxamide for building purine rings in new drug molecules. Its amino and carboxamide groups unlock transformations not available with other heterocycles. Since small changes in impurity profiles can stall sensitive reactions, our process engineers review GC and LC chromatograms for every production run.
Custom synthesis projects push for tighter lead times and higher traceability. Rush jobs can mean skipping safeguards, but we don’t take chances with incomplete crystallization, which can leave behind process contaminants. Sometimes a client requests a specialized solvate or a grade milled to a specific mesh size. We work these in—not just to differentiate, but because a chemist’s workflow benefits from knowing exactly how a powder will handle during charging, dissolution, or filtration. If a problem crops up, we don’t shuffle blame but step into troubleshooting mode, looking at both material analysis and process records.
For industrial scale, reducing downtime in tableting or synthesis relies on predictability in the intermediates. Unplanned delays in delivery hurt everyone along the chain. Our logistics team holds strategic safety stock and flexible shipping options. We package to withstand moisture in transit and seal every lot against cross-contamination. Lost batches can be traced back not just to manufacturer error but to mishandling in transit or storage, so we embed lot numbers, production records, and analytical certifications into each outgoing package.
Many clients compare 5-amino-4-imidazolecarboxamide against its close cousin, 4,5-diaminoimidazole derivatives. The extra substitution pattern shifts reactivity, unlocking different synthetic routes for nucleoside analogs and enzyme inhibitors. The care in our purification processes ensures trace metals and residual organics meet or exceed pharmaceutical benchmarks—a key reason researchers and process engineers return to our brand.
Other imidazole intermediates won’t always hold up in aqueous solution. We test stability in both dry and hydrated forms, tracking any change in melting range or loss on drying. Consistency matters for scale-up too; a batch that worked at 100 grams can misbehave at 100 kilograms if process impurities aren’t under control. Our approach bridges both bench and plant scales, feeding back lab data to production improvements and shaving off inefficiencies that plague commodity suppliers.
For those working in discovery chemistry, subtle differences in chemical profile can mean the difference between a reliable building block and a troublesome impurity source. Pharmaceutical trial batches can hinge on trace levels of process byproducts that cheaper suppliers overlook. We never shortcut on analytical throughput, loading our QC process with redundant checks to catch low-level contaminants or trace water spikes that degrade over time. It’s not about chasing specs—it's about keeping results reproducible at every batch size, so researchers don’t lose months troubleshooting a variable supply.
Innovation isn’t abstract in day-to-day manufacturing. We pull data from every synthesis and look for real improvements. Our crew splits production shifts to let maintenance and cleaning go deeper, documenting every change in process outcomes. We invest in better testing infrastructure, from NMR to UPLC-MS, as demand for tighter specs from drug and agchem customers increases. Research partnerships with universities let us validate our approaches, catching long-term stability shifts years before they impact an end product.
We notice some producers chase volume by stretching reactor cycles or swapping in lower-cost feedstocks. This leads to spikes in trace impurities that only show up in later reactions or storage. Our philosophy is to keep raw materials consistent, sourcing from vetted suppliers and keeping safety stock on hand—even when it means tighter margins—so our clients enjoy confidence when scaling to full runs.
Supply chain headaches hit everyone. By keeping certain volumes on site and forecasting client needs months in advance, our operations group reduces downtime and meets urgent requests without sacrificing batch oversight. If supply interruptions threaten a project, we open early communication about what alternatives or expedited shipments exist. We don’t hide behind opaque lead times or abstract answers, because real-world disruptions need hands-on solutions rooted in years of on-the-ground work.
Pharmaceutical innovators count on intermediates free of analytical surprises. With regulatory demands tightening worldwide, we run extra identity and purity tests on each lot headed to regulated markets. Our archive of batch documents supports audits and regulatory filings, saving months in document prep or requalification. When a client hits an unexpected result, our chemists review the entire synthesis history and track back each supply chain element to uncover possible causes.
We field increasing requests to help with method transfers, ensuring our material integrates into client processes without hiccups. Our product isn’t just a lot number—it’s the culmination of plant know-how, analytical investment, and hundreds of conversations with front-line chemists and engineers. When universities or research consortia approach us for new grades or impurity profiles, we collaborate openly, sharing our experience with yield improvements, process troubleshooting, or alternate purification routes.
Some of the most promising research in immunotherapies and nucleotide analogs now leans heavily on robust, consistent supplies of 5-amino-4-imidazolecarboxamide. We plug into those development cycles, offering samples for preclinical work and scaling feedback for pilot and commercial batches. This hands-on support often matters as much as the purity spec, since tailored supply solutions let novel ideas leave the test tube and head toward clinical validation.
As a direct manufacturer, the environment isn’t just a checkbox—local regulations push us to continually shrink our emissions profile and treat every solvent stream before discharge. We invest in waste reduction, capturing and recycling solvents in closed loops and updating scrubbers to handle trace nitrogen compounds. The safety of our plant team comes before speed, so we input redundancies in process shut-off valves and keep emergency training up to date. Any time a new synthesis or purification update rolls out, our process team collaborates directly with EHS staff to spot risks early rather than fixing mistakes after the fact.
Worker insight drives many of our production upgrades. It’s easy to overlook line operators, but their daily feedback highlighted spots where reaction temperature swings increased vapor exposure risks or where handling issues led to physical strain. We switched to improved drum lifting and closed transfers not only for compliance, but to reduce turnover and improve efficiency. These front-line changes feed back into batch consistency and retention of our best production talent.
Every outgoing shipment of 5-amino-4-imidazolecarboxamide represents years of invested learning. We know chemical manufacturing doesn’t leave room for cut corners—either in documentation, plant hygiene, or quality control. A transparent production path, open support, and the willingness to dig deep on any issue define what manufacturers offer beyond the molecule itself.
Repeat clients don’t just come for specs—they come for reliability. Our history, our test results, and our investment in both plant and people mean more than a fresh price quote. With each lot, we deliver more than a chemical: we deliver confidence, partnership, and knowledge gained through daily hands-on practice.