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HS Code |
624087 |
| Product Name | 2-Amino-5-Methylthiazole |
| Cas Number | 7305-71-7 |
| Molecular Formula | C4H6N2S |
| Molecular Weight | 114.17 g/mol |
| Appearance | White to light yellow crystalline powder |
| Melting Point | 97-101 °C |
| Boiling Point | 242.6 °C at 760 mmHg |
| Solubility | Soluble in water, ethanol, and DMSO |
| Purity | Typically ≥98% |
| Density | 1.22 g/cm³ |
| Smiles | CC1=CN=C(N)S1 |
As an accredited 2-Amino-5-Methylthiazole factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 2-Amino-5-Methylthiazole is packaged in a 100-gram amber glass bottle, sealed, with hazard labeling and product information displayed. |
| Shipping | 2-Amino-5-Methylthiazole is typically shipped in tightly sealed containers, away from incompatible substances, under cool and well-ventilated conditions. It should be protected from moisture and direct sunlight. Labels indicating hazardous nature and handling instructions are affixed. Shipping complies with local and international regulations for chemical transport and safety. |
| Storage | 2-Amino-5-methylthiazole should be stored in a tightly sealed container, kept in a cool, dry, and well-ventilated area away from heat sources, moisture, and incompatible substances such as strong oxidizers. Protect from light and avoid prolonged exposure to air. Clearly label the container, and store it in accordance with local regulations for hazardous chemicals. |
Applications of 2-Amino-5-Methylthiazole in Industrial Manufacturing2-Amino-5-Methylthiazole serves key roles as an intermediate in the synthesis of active pharmaceutical ingredients, advanced agrochemical compounds, pigment dispersants, and specialty chemicals. We support direct integration for industrial producers seeking reliable supply, batch traceability, and process-specific customizations. 1. Pharmaceutical Intermediate for Cephalosporin AntibioticsPharmaceutical manufacturers adopt 2-Amino-5-Methylthiazole as an essential heterocyclic building block during the synthesis of several cephalosporin antibiotics, including cefotiam and cefdinir. Production processes require precise batch monitoring and adherence to ICH Q7 manufacturing practices. The material directly participates in the nucleophilic substitution stage, where it reacts with acyl chloride intermediates to introduce thiazole moieties, critical for the antibacterial spectrum of final APIs. Consistency in purity and low residual solvents protects downstream API quality and regulatory acceptance. Industry compliance standards
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2. Agrochemical Synthesis – Thiazole-Based FungicidesProducers of systemic crop protection compounds utilize 2-Amino-5-Methylthiazole as a structural key for the synthesis of high-selectivity fungicides, including thiazole-carboxamide classes. The raw material provides the critical heteroatomic core for active ingredients that control resistant fungal strains. Compliance with FAO guidelines and ISO 9001 traceability applies throughout. Dosing rates depend on downstream esterification or amidation paths, influencing product efficacy and registration compliance in target markets. Industry compliance standards
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3. Dye and Pigment Intermediates – Disperse and Reactive DyesColorant and pigment manufacturers incorporate 2-Amino-5-Methylthiazole as a dye intermediate to construct specialty thiazole chromophores for disperse and reactive textile dyes. Its electron-rich nitrogen ring enables covalent bonding in advanced dye molecule structures. Production aligns with ETAD member codes and ZDHC requirements to avoid regulated amine contamination. Formulators adjust ratios according to shade intensity targets and specific application (fiber, leather, polyester), monitored by UV-Vis spectrometry for color constancy. Industry compliance standards
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4. Specialty Chemical Synthesis – Pharmaceutical Fine ChemicalsFine chemical producers source 2-Amino-5-Methylthiazole for the synthesis of advanced specialty molecules, including corrosion inhibitors and custom laboratory reagents. These applications demand high purity and precise impurity profiling, with QA systems following ISO/IEC 17025 calibration requirements. The material typically reacts as a nucleophilic agent or reductive amination feed, integrating at pre-formulation or custom catalyst preparation stages. Usage details are tailored per contract and downstream application specifics, with regular analytical batch releases to ensure reproducibility for high-specification users. Industry compliance standards
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At our production facility, we’ve seen the transformation of thiazole derivatives move from specialty chemicals for research to daily workhorses in pharmaceutical, agrochemical, and dye synthesis. Years of on-site experience and continuous technical refinement have shaped our approach to producing 2-Amino-5-Methylthiazole. This isn’t a side product or general-purpose intermediate; if your process requires fine control, low impurity profiles, and reliability at scale, the qualities of this compound stand out.
Our plant works with 2-Amino-5-Methylthiazole in batches ranging from pilot lots to multi-ton orders. The most common form leaves our dryers as a pale-to-light yellow powder, fully traceable from incoming raw materials to released finished goods. Most of our customers in pharmaceuticals select the specifications with purity of at least 99%, which we monitor by both HPLC and GC. This level doesn’t just safeguard downstream yields—it helps root out batch variation that long-term partners notice if there is even a minor drift over time.
Years ago, we dealt with a series of projects that revealed one hard lesson: small impurities in heterocyclic base compounds like this one snowball downstream, especially in multi-step syntheses. A single percent off-spec can corrode the economics of a campaign—recalls, lost efficiency, and off-odor side streams cost time and money. Today, every shipment leaves our gates with supporting trace analytics—including isomer identification, moisture content (typically under 0.5%), and bulk density data so customers know exactly what they’re handling by weight and volume.
In our workshops, the most direct use for 2-Amino-5-Methylthiazole comes in coupling chemistry for active pharmaceutical ingredients (APIs). We send drums to customers focused on antifungal, antiviral, and cardiovascular candidates. Their protocols rely on condensed ring systems, which need nucleophilic amine groups in reliable supply, with methyl substitution at the 5-position promoting the right electronic structure for further reactions. Researchers hammer us with little tolerance for outliers—color variation, difference in melting range, or trace organic residue can set a new project behind schedule.
Down the road in agricultural chemistry, another customer batch-reacts 2-Amino-5-Methylthiazole to engineer new herbicides. Consistent purity helps keep environmental impact modeling realistic, since “unknowns” in production material can amplify unwanted byproducts in soil studies. Here, the material’s reactivity is just as important as its consistency: the amine group readily forms amide and imine linkages, supporting the creation of safer and more targeted actives for modern agriculture. We see our contribution not only as a chemical feedstock but as a piece of the solution to higher crop yields and lower residue profiles on food.
A third major use sits with specialty dyes and pigments, especially those needed for electronic applications or advanced textiles. Our chemists routinely troubleshoot mixing protocols so downstream users won’t end up with poorly blending lots or unpredictable photostability in finished coatings. CRMs and stringent process controls anchor these projects, with customers asking for specific particle size cutoffs and zero detectable heavy metals. Unlike with basic commodity intermediates, we can’t approach these jobs with a “good enough” mentality. Customers are building tomorrow’s colorants with tighter standards every year.
Plenty of manufacturers can list “high purity” or “lot traceability” on a website. Ensuring those claims match the reality in every barrel and bag over years of production takes more work than most realize, especially for heterocycles that easily pick up contaminants from environment and parent precursors. At our site, tight closed-loop handling keeps cross-contamination off the board. Our team prevents process shortcuts that could save pennies but cost customers thousands. Over many cycles, small upsets like inconsistent pH, unreliable catalyst quality, or inadequate drying will show up. Every line operator and supervisor understands that solvent cleanliness and reactor passivation affect more than just lab results; they protect the integrity of every delivered order.
We use staged raw material screening and closed-system purification for each batch. The amination and cyclization steps run under carefully controlled heat gradients and agitation profiles, with adjustments made in real time to absorb kinetic drift and side-reaction hotspots. Exothermic runaways or impurity spikes can sabotage an entire production campaign; our method relies on in-process characterization, not just end-of-line spot checks. Supporting this, our plant invests time between cycles for dedicated line flushes and surface passivation, since even trace residues from a prior batch can seed unexpected byproducts.
All material is vacuum-packed shortly after drying to prevent oxidative or hydrolytic degradation. Bulk orders can be tested for residual solvents (including those not directly used, as process bystanders), since the people using this intermediate often have safety and environmental oversight downstream. Over the years, our team has worked with customers to tweak certain physical properties—flowability, caking resistance, custom particle sizing—because production line downtime really does start on the chemical’s journey from our plant floor. That hands-on back-and-forth beats generic “product data sheets” every time.
Chemists might wonder what sets this compound apart from other thiazole derivatives with similar ring systems. From our observation, methyl substitution at the 5-position significantly impacts electronic effects on subsequent coupling and condensation steps. Other derivatives, such as 2-Aminothiazole—without the methyl group—display different solubility, reactivity, and selectivity in downstream reactions. That can translate into higher (or lower) yields, waste byproduct issues, or trouble in purification steps for customers.
In our process, materials like 2-Amino-4-Methylthiazole and 2-Aminothiazole sometimes find roles in earlier phase research, but when customers lock a synthetic route with tight impurity specs, they move toward the 5-methyl version for better process predictability and patent defensibility. The methyl group insulates the amine from cross-reactions and can help shift the solubility balance for easier isolation later. This isn’t theoretical—customers stuck with stubbornly impure crops after pilot runs using the “wrong” isomer have told us the difference is like night and day, especially in API and pigment work.
We measure product performance not just in the lab but in the field. Analytics like melting point, HPLC/GC profiles, and trace metals stamp each shipment, but feedback from a production line or column chromatography wash speaks more than paperwork. Years of technical dialogue with pharmaceutical and agricultural users convinced us that single-digit differences in side-chain placement can upset process qualification and scale chemistry. Anyone planning substantial process investments owes it to themselves to secure the right isomer and batch characteristics from their intermediate, rather than hoping to tweak yields downstream. Our job is to deliver a compound with the right foundation for those choices.
No manufacturing process develops in isolation. Over many cycles, we’ve seen challenges with solvent recovery, indirect emissions, batch stability during weather swings, and the intricate dance of maintaining GHS-compliant packaging and labeling. Early on, we faced bottlenecks around moisture retention, with batch-to-batch variability in handling characteristics that made some downstream formulations unpredictable. Rather than accept lost product or manual rework, we doubled down on root cause: desiccant choice, room pressurization, and inline drying cycle extension now turn out consistent product lots regardless of the weather outside.
Throughout the year, temperature and humidity changes challenge chemical stability for intermediates like 2-Amino-5-Methylthiazole. Focusing on warehouse and shipping conditions, not just in-house process controls, helps customers avoid clumping, oxidation, or shelf-life complaints. Decades in the industry showed us the value of real-time feedback loops with partners, adjusting our batch documentation and drop testing to deliver the same product from January to July, whether shipping across a city or across an ocean.
Working on the ground with international regulatory auditors further sharpened our scrutiny in managing quality risks. No matter how experienced a crew or technical a setup, a recurring challenge comes from cargo monitoring and chain of custody. We select packaging and batch release methods tailored to hazard classification and transport mode, so no customer finds themselves sorting through heat-damaged product or paperwork noncompliance. The end result: a compound that can move from drum to reactor without triggering process alarms or downstream contamination headaches.
Industry outsiders often miss how much operator experience feeds into production quality. Our process teams include veterans who have run every unit operation under real-world pressure, not just ISO-audited procedures. Every scale-up brings points for judgment calls—as temperature plates rise or agitation slows, much hinges on employees able to distinguish a “normal” run from a trend toward impurity breakthrough.
Over time, facility knowledge becomes embedded in process documentation and training. We routinely refresh record-keeping, as small changes in water activity, raw material source, or mechanical wear can shift product character. No batch reduction in impurity or tighter pH control grows from a single process improvement meeting; dozens of field notes, pilot run trials, and customer returns shape protocols that guide daily practice. This isn’t glamorous work, and rarely lands in marketing summaries, but it’s the foundation for the materials our partners rely on.
Many customers come to us with process issues outside the narrow letter of “specification.” Unexpected fouling in fluidized bed granulometry, trouble solubilizing their intermediate, or incompatibility with certain excipients climbs up their list of frustrations. Our technical team works with customers before and after shipment, providing insights about how to tweak solvent ratios, manage off-gassing, or even reinterpret color and clarity as proxies for purity and process stability. Several years ago, we collaborated with a pharmaceutical group to forecast and minimize formate byproduct based on historical batch records. Using real-world knowledge of plant conditions—not just raw numbers on a data sheet—helped achieve a cleaner, more predictable output.
More than once, customers dealing with international regulations—REACH, FDA, or national pesticide oversight—pivoted to our product line because of traceability built into every lot. Regulatory shifts don’t just shape paperwork; they impact supplier qualification, customs clearance, and, ultimately, the market timelines for downstream products. Our experience keeping digital logs and sample retains in-country for years after fulfillment guarantees peace of mind for partners with high-stakes regulatory dependencies.
In a world where chemical raw material pricing and availability fluctuate widely, maintaining trusted supplier relationships means more than meeting a minimum spec. We work through volatility, identifying and qualifying backup raw sources, and holding reserves to weather supply chain storms. The goal isn’t just continuity—it’s making sure that each customer, from specialty lab to global bulk buyer, experiences the same predictable result every time they open a shipment.
Manufacturing 2-Amino-5-Methylthiazole isn’t just about hitting specs; it’s about minimizing emissions and managing waste at every step. Closed-cycle solvent recovery, downstream scrubbing, and effluent monitoring aren’t buzzwords for us. With global tightening of environmental oversight, local inspectors and international customers pay closer attention to how chemicals like ours arrive at their sites—the days of “out of sight, out of mind” are gone.
Routine audits of our byproduct handling and emissions reporting keep our team honest about continuous improvement. Operators get training not just on batch controls but on how to spot leaks, manage spills, and adjust run parameters to limit offgas emissions. Our long partnerships with logistics handlers minimize spills and rejected cargo at border crossings. We know our finished product delivers its greatest value when every stage from synthesis to delivery keeps both the people and the planet in mind.
Our facility adapts to emerging green chemistry trends, exploring alternative process aids and minimization of hazardous intermediates wherever possible. Ongoing work on process intensification and energy management makes our footprint smaller without compromising the integrity of the product. Every improvement brings meaningful results not just in compliance audits but in ongoing relationships with high-standard customers who value sustainable sourcing.
The market for thiazole derivatives trends steadily upward—as drug and agrochemical innovation demand more complex, pure, and specialty intermediates, so does the importance of getting the basics right for materials like 2-Amino-5-Methylthiazole. Our business doesn’t run on one-time projects or quick sales; it grows when R&D teams and process engineers keep coming back, knowing they’ll receive a consistent and transparent product every cycle. Day in and day out, facility upgrades, operator training, and live process monitoring take priority over shortcuts.
We keep an open channel to customers, ready to troubleshoot everything from reactivity questions to shipping conditions. Fielding technical queries, running extra impurity checks, or managing rush orders keeps us grounded in the practical realities of the industry. Industry demands evolve, but the work ethic and daily vigilance behind every kilogram we send out stays the same.
With roots in chemical engineering, a commitment to technical honesty, and years spent learning from both customer wins and setbacks, we’ve built a track record our partners count on. For those building tomorrow’s pharmaceuticals, crop protectants, or specialty pigments, 2-Amino-5-Methylthiazole remains more than a compound. It represents the intersection of experience, care, and precision in chemical manufacturing.