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HS Code |
916594 |
| Cas Number | 14337-94-3 |
| Molecular Formula | C4H4N2OS |
| Molecular Weight | 128.15 g/mol |
| Iupac Name | 2-amino-1,3-thiazole-5-carbaldehyde |
| Appearance | Light yellow to yellow solid |
| Melting Point | 173-175°C |
| Solubility In Water | Slightly soluble |
| Purity | Typically ≥ 98% |
| Smiles | C1=C(SC(=N1)N)C=O |
| Inchi | InChI=1S/C4H4N2OS/c5-4-6-1-3(2-7)8-4/h1-2H,(H2,5,6) |
As an accredited 2-Amino-5-Formylthiazole factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | White plastic bottle labeled "2-Amino-5-Formylthiazole, 25g," with hazard symbols, lot number, and manufacturer details printed clearly. |
| Shipping | **Shipping Description for 2-Amino-5-Formylthiazole:** This chemical is shipped in tightly sealed containers to protect from moisture and light, typically under ambient or cool conditions. Proper labeling ensures compliance with safety regulations. Handle with care, avoid physical damage, and ensure documentation (SDS) accompanies all shipments. Follow local and international chemical transport guidelines. |
| Storage | 2-Amino-5-formylthiazole should be stored in a tightly closed container, in a cool, dry, and well-ventilated area, away from direct sunlight, heat, and moisture. It should be kept away from incompatible substances such as strong oxidizers. Store at room temperature and ensure proper labeling to prevent accidental misuse. Handle with appropriate personal protective equipment. |
Applications of 2-Amino-5-Formylthiazole in Industrial ManufacturingAs a core producer of 2-amino-5-formylthiazole, we supply this thiazole intermediate to original manufacturers operating in several targeted downstream fields. Below, we detail its industrial roles, relevant standards, dosing guidance, integration points, and the final manufactured products in each major application sector. 1. Pharmaceutical API SynthesisPharmaceutical companies incorporate 2-amino-5-formylthiazole as a building block in the synthesis of antibiotic and anti-inflammatory drug substances. Formulation chemists rely on its aldehyde and amino groups to support thiazole ring extension and selective condensation reactions within active pharmaceutical ingredient (API) manufacturing. Medicinal chemists apply this intermediate in multi-step reactions, strictly controlling residual levels according to registered synthetic routes. Material traceability, contaminant monitoring, and batch documentation are mandatory throughout the conversion process from intermediate to API. Industry compliance standards
Typical usage ratio
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2. Agricultural Chemical SynthesisCrop protection ingredient manufacturers use 2-amino-5-formylthiazole as a key intermediate for triazole and thiazole-containing fungicides and pesticides. Its formyl group allows controlled stepwise modifications to build active moieties that meet biological efficacy and selectivity requirements. Regulatory inspection and process validation are essential to ensure no prohibited metabolites persist through downstream formulation and packaging. Full documentation for raw material origin and batch consistency must correspond to agrochemical registration dossiers. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
3. Dye and Pigment ManufactureColorant producers apply 2-amino-5-formylthiazole as a functional intermediate in the synthesis of specialty dyes for textiles, inks, and coating applications. Its reactive sites support condensation with aromatic aldehydes and amines, leading to thiazole-containing azo and heterocyclic dye structures. Strict control of impurities, heavy metals, and batch reproducibility is mandatory to comply with textile and printing industry color fastness and safety criteria. All batches must undergo full spectral and chromatographic analysis before shipment to coloring formulators. Industry compliance standards
Typical usage ratio
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4. Fine Chemical Intermediate for Specialty SynthesisSpecialty fine chemical producers utilize 2-amino-5-formylthiazole in the development of research-grade compounds, molecular probes, and electronic materials. Synthesis chemists leverage the bifunctional nature of the molecule to build up complex heterocyclic targets and custom intermediates for further contract manufacture or laboratory application. Accurate dosing, solvent compatibility, and reactivity control are essential for repeatable pilot-to-scale transfer and downstream performance specifications. Industry compliance standards
Typical usage ratio
Downstream process integration
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Over years of hands-on production experience, some products have shown what real consistency and performance look like in a chemical plant. 2-Amino-5-Formylthiazole brings together practical utility and straightforward handling for research, development, pharmaceuticals, and specialty synthesis. We produce this compound for a demanding customer base that needs technical reliability, batch after batch, and can’t take risks on unknown sources.
A clear and amber-to-yellow crystalline powder, our 2-Amino-5-Formylthiazole (CAS 2631-37-0) comes in models including lab, pilot, and process scale. The typical molecular formula (C4H4N2OS) and precise structure support consistent outcomes in synthetic steps that require a stable thiazole ring with both the amino and formyl positions free for further modification. This unique piece of chemistry gives R&D scientists and process chemists more options—especially in heterocycle synthesis and the discovery of new compounds.
Our journey in producing 2-Amino-5-Formylthiazole started with careful selection of starting materials and a process design built around minimizing impurity profiles. Years ago, we noticed how unreliable supply chains in the region made it difficult to guarantee identity and purity above 98%. We invested in robust raw material quality controls and route development to avoid unscheduled shutdowns or poor crystallization. Skilled chemists check each intermediate in our production, and end-product is examined using HPLC and NMR—the by-hand craftsmanship that makes troubleshooting easier.
In practice, producing 2-Amino-5-Formylthiazole for our clients goes beyond powder in a bag. Engineers track moisture content, package under inert gas, and monitor transit temperatures when shipping internationally. Clients in pharma and biotech have pointed out fewer failed reactions when moving from generic, distributor-sourced material to our direct-manufacturer batches. We take that as proof that investments made on the production floor turn into success in our partners’ projects.
This compound has won a spot in multiple R&D settings. We see it used as a key intermediate in antithyroid drug development and in the preparation of a variety of heterocycles. Chemists reach for it in the early stages of synthesizing molecules that act as enzyme inhibitors, antifungal agents, or imaging probes. Our customers often explore the formyl group as an entry point for further, more elaborate chemistry such as condensation with active methylene compounds or building fused rings.
Some customers, after switching to our product, reported that tighter melting ranges and reduced trace impurity levels translated to higher yields in downstream transformations. In a crowded synthesis schedule, avoiding the fallout of unexpected impurities means that chemists can focus on moving projects forward instead of fire-fighting rework.
We measure the real value of any fine chemical by how often users report smooth evaporation, dissolves, or crystallizations. Clients often notice actual performance differences among suppliers. When making 2-Amino-5-Formylthiazole, a small shift in drying or acid-base workup conditions can tip the balance between a pure product and one containing colored by-products or decomposition. That’s one reason old-fashioned batch records and hands-on expertise matter more than modern data sheets alone. Analysts catch variations not only with standard chromatography or NMR but also by smell and crystal appearance—details that save time when customers spot issues before they reach scale.
In trade markets, resellers sometimes blend or relabel products, which can cut price at the expense of consistency. As a manufacturer, we stay directly responsible for every batch, tracing each kilogram to the chemist and technician who produced it. Our packaging teams keep products away from excess moisture and light, which might not be possible in less controlled shipping or storage elsewhere. This matters when some clients run moisture-sensitive steps or need to store the product for months before use.
Some clients ask if 2-Amino-5-Formylthiazole can be substituted directly with other aminothiazoles or thiazole-aldehydes. Chemically, the formyl and amino at the 2- and 5-positions govern reactivity. For example, straight 2-aminothiazole lacks the electron-withdrawing formyl, which reduces its utility for most advanced condensations. 5-formylthiazoles with no amino group don’t offer the same route flexibility—those users need full access to both positions when building more complex structures.
Even small impurities in close analogs can shift how a reaction proceeds, especially in pharmaceutical contexts where regulatory filings require demonstration of control at parts-per-million scales. Some substitute chemicals may look similar to the eye, but differences in polymorphs, solubility, or trace stabilizers show up in final product analysis. Our direct experience confirms what many learned through trial and error: short-cutting the starting material stage almost always brings headaches on scale-up or regulatory review.
Producing any thiazole derivative at scale means constant iteration. We fine-tune process steps because trace oxidation, leftover acids, or imprecise temperature control in early steps changes crystal color and shelf life. Our labs run side-by-side pilot and manufacturing-scale trials to ensure that changes made for efficiency don’t introduce new problems—regular feedback between chemists, engineers, and operators keeps specs tight.
Storage gets special attention. Since the formyl group in 2-Amino-5-Formylthiazole can undergo slow air oxidation or react with traces of water, freshly dried product heads quickly into low-permeability packaging. Teams check desiccant and seal integrity routinely; lab staff routinely open random sample lots to confirm appearance, melting range, and chromatic purity.
We worked with a customer scaling up to multi-kilo lots for a medicinal chemistry program. They reported that shelf stability and reliability between batches cut weeks from their development timeline—no more repeated requalification to confirm a new drum met the same purity, solubility, and handling profile as the last.
We’ve learned that documentation builds trust almost as much as product quality. From raw material vetting to in-process checks and finished product analytics, we keep comprehensive records for every batch. Auditors from both customer companies and regulatory bodies want to see that deviations are not swept under the rug. Our process chemists and QA professionals sign off on each lot, and we share full analytical results with clients for their own records.
That’s not just good business; it helps customers get products through their own quality checks and regulatory hurdles faster. Several customers have remarked that our practices shortened the tech transfer and validation phase in their projects, sometimes making the difference between hitting or missing a clinical trial target. Having all records on hand speeds up the process for any customer moving from research to scale.
Any operation handling fine chemicals must address environmental impact head-on. Thiazole chemistry produces both organic and aqueous waste. Over the years, we reengineered process steps to reduce both volume and toxicity of waste. Distillation and recycling of solvents, energetic neutralization of hazardous intermediates, and in-house biological treatment minimize emissions. Independent audits substantiate our environmental statements and reinforce our commitment to responsible production.
We keep solvent selection and energy use under review, responding to new regulations and customer preferences for greener options. Developing in-process recycling protocols let us cut down fresh solvent consumption and reduce overall waste output. These steps don’t just satisfy regulatory agencies; they keep our cost base stable, which benefits end-users facing tight R&D budgets.
Direct relationships and understanding raw data mean more than flashy marketing. Over time, we’ve developed strong lines of communication with partner labs, helping them investigate root causes for unexpected results. If a batch gives unexpected chromatograms, or if a shipment doesn’t crystallize the same way as before, our experienced chemists join in. Small adjustments on our end—extra drying passes, tighter control of residual solvents—often resolve issues clients have spent weeks troubleshooting elsewhere.
Repeat customers often mention that working with a manufacturer directly saves them time spent chasing uncertain results, relabeling, and retesting. Over time, we’ve seen those partnerships turn into real collaborations where feedback loops improve both our product and the client’s process. Few intermediaries bother to solve problems with hands-on trials or adjust analytical protocols, but as a manufacturer, the information learned goes directly into system upgrades and better recommendations for future lots.
During a recent international logistics upset, our distribution team tracked down a temperature fluctuation event during ocean shipment. By following chain-of-custody records and running retention sample checks, we isolated a minor drop in crystallinity in just one drum. Rapid replacement meant the customer’s synthesis schedule never slipped, proving again that direct access to the producer helps resolve unforeseen complications smoothly.
Few things slow down a synthesis campaign faster than sourcing surprises. Over the past decade, we’ve seen the thiazole derivative market experience shortages, off-spec spot trade, and rising regulatory bar for documentation. R&D and process teams at customer labs request not just reliability in the immediate sense, but the assurance that long-term partnership won’t mean sudden product substitutions or quality backslides.
Long-running customer relationships show that reliability breeds confidence—projects can proceed with clear timelines and budgets. The ability to trace every drum, bag, and sample to an original batch record sets apart direct manufacturers from traders or brokers; our own feedback from clients proves this time and again. If a reaction runs clean with our 2-Amino-5-Formylthiazole today, teams know the next order will work the same way.
No process remains static; ours changes according to both customer needs and technology advances. Some clients ask for custom particle sizing, others request low-metal content or additional purity certifications. Each case creates new challenges for production and QA teams, but as a chemical manufacturer, tuning process controls or adding analysis never gets outsourced to an unknown supplier. All development takes place on site, with end-users welcome to audit and visit whenever needed.
Requests for special documentation, novel applications, or combined impurity testing have pushed us to invest in better analytics equipment and staff training. We also develop collaborative research projects where customer feedback informs not only one order but the refinement of our entire process. Keeping development internal means solutions remain proprietary and under our control, further supporting the needs of innovative researchers.
A customer running high-throughput medicinal chemistry screens approached us for a customized grade with stricter control over trace aldehyde impurities. Joint sample analysis let us pin down a process improvement that raised the average yield at their site, with both teams benefiting from the open data exchange.
Contact with this compound requires observant lab practice, especially at multi-kilogram scale. Lab techs and engineers handling batches appreciate the compound’s moderate stability—care in avoiding open air and direct sunlight extends shelf life. Glass or high-grade polymer containers minimize risk of reactive decomposition. Site audits and training sessions with our own staff highlight these practical lessons, which we freely share with every new customer onboarding for the first time.
Whether researchers need half a kilogram for screening or dozens for multistep scale-out, our own process recipes and staff experience help inform safe lab protocols, waste neutralization steps, and efficient batchwork. Incoming batches match the analytical signatures of earlier ones—so new runs start on solid footing.
Supplying fine chemicals like 2-Amino-5-Formylthiazole means giving end-users more than just a reactant—it means offering consistent, scalable, and well-understood material for discovery. Regular customer meetings bring in insights about trends in medicinal chemistry, materials research, and specialty agrochemical intermediates, which then guide our next improvements. Our staff actively tracks new publications referencing our product; proper attribution confirms both our role and client success.
Research teams have published more reliable results when starting from manufacturer-sourced starting materials, backing up each structure and yield with full supporting spectra. That data supports filing for more grants, securing regulatory approval, and growing the reach of new technologies. Our own engagement with end-users—sharing tips on recrystallization, storage, or purification—helps stretch limited project budgets further.
Years of experience producing 2-Amino-5-Formylthiazole have shown us that deep attention to technical details, continuity, and customer communication make all the difference. Clients stick around for more than competitive price—they value predictability, transparency, and practical support. Those features, in our view, matter more than any one engagement or transaction. As the needs of scientific progress evolve, manufacturers able to meet new challenges, support robust documentation, and produce consistent quality will remain essential partners in discovery and innovation.