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HS Code |
163550 |
| Chemical Name | Isopropyl 3-Aminocrotonate |
| Molecular Formula | C7H13NO2 |
| Molecular Weight | 143.18 g/mol |
| Cas Number | 17639-80-0 |
| Appearance | Colorless to yellow liquid |
| Boiling Point | 84-86°C at 10 mmHg |
| Density | 1.0 g/cm3 (approximate) |
| Refractive Index | 1.448-1.450 |
| Solubility | Soluble in organic solvents |
| Purity | Typically ≥97% |
| Smiles | CC(C)OC(=O)C=C(N)C |
| Storage Temperature | 2-8°C |
As an accredited Isopropyl 3-Aminocrotonate factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Isopropyl 3-Aminocrotonate, 100g, is sealed in an amber glass bottle with a tamper-evident cap and labeled for laboratory use. |
| Shipping | Isopropyl 3-Aminocrotonate is shipped in tightly sealed containers, protected from light and moisture. It should be transported at ambient temperature, following all local, national, and international regulations for chemical shipments. Proper labeling and documentation are required to ensure safety during handling and transit. Avoid exposure to incompatible materials. |
| Storage | Isopropyl 3-Aminocrotonate should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area away from direct sunlight and sources of ignition. Keep it away from incompatible substances, such as strong oxidizing agents and acids. Store at room temperature, and ensure appropriate labeling. Use secondary containment to avoid spills and consult the safety data sheet for additional requirements. |
Applications of Isopropyl 3-Aminocrotonate in Industrial ManufacturingIsopropyl 3-Aminocrotonate serves as a key raw intermediate in advanced organic synthesis across multiple industrial sectors. As the direct manufacturer, we customize production specifications to match the technical and regulatory needs of downstream applications, focusing on performance in pharmaceutical, agrochemical, pigment, and specialty chemical processes. 1. Pharmaceutical Intermediates for Heterocyclic SynthesisIn pharmaceutical manufacturing, Isopropyl 3-Aminocrotonate functions as a building block for synthesizing various heterocyclic active pharmaceutical ingredients (APIs), including pyridine, pyrimidine, and pyrazole derivatives. R&D and production departments rely on this material for high-yield cyclization reactions. Batch and continuous processes prioritize consistent purity and traceability, meeting regulatory requirements for API synthesis in highly regulated markets such as the US, EU, and Japan. Process application focuses on minimizing by-products and optimizing reaction conversion during intermediate formation. Industry compliance standards
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2. Agrochemical Active Ingredient SynthesisLeading crop protection formulators use Isopropyl 3-Aminocrotonate to construct advanced agrochemical actives, especially for the production of pyridine- or pyrazole-based herbicides and insecticides. Its reactivity enables selective functionalization, which is essential for generating compounds with target-specific biological activity. Application in this sector demands strict contaminant control, residue analysis, and environmental compliance, making traceable sourcing from the original manufacturer essential. Industry compliance standards
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3. Organic Pigment and Dye Intermediate ProductionIsopropyl 3-Aminocrotonate is widely used as a condensation component in formulating high-performance pigment and dyestuff intermediates. Colorant manufacturers leverage its role in ring closure and amination steps while producing specialty pigments for plastics, inks, and coatings. The material’s defined reactivity profile ensures batch-to-batch color consistency, crucial for strict shade and fastness requirements in automotive and textile finishing sectors. Regulatory monitoring includes handling for worker safety and effluent controls. Industry compliance standards
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4. Specialty Fine Chemical Building BlocksManufacturers of specialty fine chemicals utilize Isopropyl 3-Aminocrotonate for introducing aminocrotonate groups into performance molecules, including photoinitiators, UV absorbers, and modified resins. This application centers around the need for controlled molecular modification on pilot and commercial scale, with attention to byproduct minimization and downstream product purity. Technical requirements emphasize traceability in multi-step syntheses and compatibility with advanced analytical methods. Industry compliance standards
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As a chemical manufacturer, we see each new product as more than just a line item in a catalog. Pulling together raw materials, daily handling of reactive intermediates, and regular feedback from customers have all shaped how we approach Isopropyl 3-Aminocrotonate. This substance—often called by its IUPAC name or CAS registry—holds a distinctive spot in our synthetic portfolio due to its clean reactivity profile and dependable quality, especially compared to earlier generations of aminocrotonates.
Our Isopropyl 3-Aminocrotonate follows a tight production workflow, focusing on a purity threshold well above 98 percent by GC. Color, residual solvents, and water content do not escape inspection, as we know impurities sneak downstream and frustrate R&D teams. We have listened to organic chemists—both inside our own walls and at partner firms—who pushed for low impurity profiles and minimal tars in evaporation steps. That led us to use dedicated reactors with reinforced glass-lining, giving a smaller risk of cross-contaminants.
Many companies produce aminocrotonates with a range of alcohol moieties, but we standardized on isopropyl for a reason. Isopropyl offers improved shelf stability during transit and does not hydrolyze as freely as the methyl or ethyl analogs, meaning it keeps its chemical promise longer. In repeated batch analytics, storage at ambient temperatures has not triggered significant decomposition for up to six months—a real advantage for global customers who require material shipped over long distances.
Our decision to stick with specific batch sizes—varying from 20 up to 100 kilograms—grows out of regular dialogue with procurement teams in medicinal chemistry and agrochemical firms. Taking their forecasts seriously, we invest in scalable reactor capacity to close the gap between pilot synthesis and ton-scale manufacturing, all under the same roof. Custom batch splitting and dedicated container fills became standard practices here, and we see less downtime and more reliability on delivery schedules as a result.
We are not in an armchair talking about textbook applications. Our daily business brings us close to the needs of companies running multi-step pipelines in drug discovery, pigment intermediates, and advanced polymer research. Isopropyl 3-Aminocrotonate serves as a favored synthon for constructing pyridines, pyrazoles, and certain β-enaminones—especially in pharmaceutical leads and crop protection research.
It proves itself as a Michael donor or intermediate enamine, where the isopropyl ester acts as both an activating and a stabilizing group. Chemists appreciate its ability to participate in both acid and base-catalyzed condensations, providing access to diverse heterocycles with good to excellent yields. Unlike bulk esters prone to rapid hydrolysis, this one holds up during longer reactions, so researchers face fewer surprises at the workup stage.
A significant proportion of our batches go straight to process chemistry teams, where the focus lands on reaction scalability and robust impurity control. Starting right from clear raw material sourcing, through continuous in-process monitoring, we minimize lots that fall outside narrow specification bands. Chemists running mid-scale synthesis in glass-lined steel or kilo-lab reactors often report how well our Isopropyl 3-Aminocrotonate blends into solution and handles various nucleophiles, sometimes replacing less convenient precursors.
Our long experience compels us to be honest: not all aminocrotonates are built the same. Many encounter trouble with oxidation or runtime hydrolysis, which show up as brown tars or unexpected side reactions on the plant floor. Isopropyl 3-Aminocrotonate from our facility has been refined through iterative quality studies, including real-case troubleshooting for failed condensation reactions and incomplete purifications.
We have been asked to contrast our isopropyl ester regularly with methyl, ethyl, and tert-butyl alternatives. The isopropyl moiety offers a clear balance between volatility and resistance to moisture uptake. In plant trials, we measured less handling loss to evaporation and greater consistency in melting range. On reaction monitoring by NMR and HPLC, the product stands out by producing less byproduct under basic or acidic processing, which makes downstream isolation smoother and more cost-effective.
Feedback from contract manufacturing groups often centers around downstream compatibility: our Isopropyl 3-Aminocrotonate consistently forms clean salts and displays low formation of colored byproducts. This matters especially in the synthesis of fine chemicals where dark impurities can lead to costly rework or crystallization failures. We also hear positive reports from teams who carry out emission testing: lower residual isopropanol, fewer volatile organics released during solvent stripping, and easier compliance with air quality standards.
Comparing to tert-butyl esters, our isopropyl version avoids the extra handling risks associated with tert-butyl's bulkiness and thermal lability. The result: more straightforward workflows, less need for temperature control, and fewer cleanups after exothermic side-reactions. These advantages become critical for process chemists involved in high-throughput synthesis or scale-ups for clinical trial supplies.
We don’t take shortcuts behind closed doors. Actual batch records tell the story: over seventy production runs logged between the past two years have shown a rejection rate below one percent, owing mostly to tight inclusion of QA checks at crucial synthesis or distillation steps. This has translated to higher on-time delivery, and repeat orders from partners in Europe, the US, and Asia-Pacific.
Our analytical team runs full spectra for every lot, including GC-MS, NMR, and Karl Fischer for water content. Acid number and ester number determination—standard in our QC lab—have underpinned shipping long-term stability studies. Actual user feedback from pharmaceutical and fine chemical plants has highlighted the reduction in downstream costs about solvent consumption during purification and decreased need for extended heating cycles during reactions.
Over the past five years, our compliance with ISO 9001 and regular audits from global pharma clients has pressured us to keep documentation watertight. These audits dig into batch traceability, change controls, and transparency in sourcing—factors that directly echo the E-E-A-T ethos of expert, experience-based manufacturing.
Practicing what we preach on the shop floor has taught us a thing or two about storage and waste management for Isopropyl 3-Aminocrotonate. Compared with methyl crotonate-based compounds, ours displays reduced fume generation, so operators face less irritation and better air quality compliance inside the main work bays.
Modest vapor pressure and good packing stability allow safe handling in both warm and cold climates. Typical packaging involves epoxy-lined drums, but we also work directly with clients on custom fills for lower-volume GMP campaigns—minimizing exposure and packaging waste for everyone involved.
Any chemical plant manager can tell you stories about cleanup headaches or cross-contamination scares. Here, we always segregate aminocrotonate lines from other ester products; we wash reactors with verified solvent cycles and track residual organic levels as a matter of course. Real-world experience proves that upfront investment in good hygiene translates to fewer plant incidents and less batch rework—something that supervisors, plant workers, and clients all appreciate.
Forward-thinking manufacturing does not just mean meeting stated specs on a data sheet. Facing real-world inefficiencies, we saw the high price of expired material on customer shelves and slow customs clearance for hazardous goods. Regular customer outreach led us to optimize the packing line for better labeling—clarifying shelf lives, lot numbers, and hazard symbols for quicker acceptance at border checks.
Shipping issues motivated us to explore more robust containment for sea freight. Our drums undergo air-tightness stress tests and leak checks before they leave our site, reducing insurance claims due to loss in transit. In the case of customs delays, our product retains physical integrity—reassuring quality managers in plants with zero defect tolerance.
We help technical managers fine-tune operational procedures. Practical steps include optimized dilution protocols for reaction charges, adjustment of heating ramps for safer processing, and tailored waste stream management. These measures cut overall risk while saving time on rework—a win for both financial and environmental outcomes.
A good chemical product is not just measured by its initial performance. From the stories told by pilot plant supervisors and R&D chemists, long-lasting supply relationships grow from reliability batch after batch, and quick resolution when unexpected issues crop up. Our role as the manufacturer puts us closer to the technical root of every success—and failure.
We do not view customer questions as interruptions; they drive us to refine, troubleshoot, and improve at every stage. Recurring technical dialogues with end users have taught our team the subtle differences between process hiccups due to operator error, unforeseen raw material reactivity, and actual product flaws. This feedback loop leads to continuous quality gains and smarter approaches to process planning.
As regulatory pressures grow and downstream partners place a premium on documentation and audit trails, we stand committed to transparent sourcing, clear recordkeeping, and rigorous introspection. We did not wait for new standards—we internalized E-E-A-T values long before these appeared as industry buzzwords. Our manufacturing team’s skill, tested under real deadlines and laboratory error reviews, defines what we deliver in every shipment of Isopropyl 3-Aminocrotonate.
Manufacturing Isopropyl 3-Aminocrotonate means sweating the details daily. We have been asked to supply custom purity levels, altered solvent residues, and tailor-fit particle size distributions. These aren’t academic exercises—they originate from industrial bench scales, missed milestones, and rush orders when timelines slip. Walking side by side with customers through these problems has forced us to refine upstream synthetic routes, invest in new reactor linings, and broaden our documentation scope to accommodate bespoke regulatory filings.
Partnership with academic groups, contract research organizations, and specialty synthesis labs keep us sharp. Their feedback often prompts us to test crystallization conditions, fine-tune pH control in neutralization steps, and validate transportation stability—actions that safeguard both research outcomes and commercial viability.
Scale-up feedback drives a significant part of our development calendar. We adjust manufacturing cycles to avoid bottlenecks, such as reagent rationing and downtime between campaigns. This way, clients facing commercial launch deadlines do not sweat unforeseen shortages; our plant is ready to pivot and bridge the supply gap with minimal disruption.
We host annual roundtables with major buyers and technical users. This isn’t public relations—these direct exchanges bring up new pain points and solution avenues. Be it analytical method refinement, shipping container innovations, or improved safety data sheet transparency, every suggestion fuels further improvement.
Every day spent manufacturing Isopropyl 3-Aminocrotonate brings unique challenges, but the rewards of seeing research move to industrial scale with our product at its core cannot be overstated. We protect hard-won trust with each drum shipped and every technical query settled. Years of engagement with different process environments, technical experts, and regulatory inspectors mean we live the everyday reality behind every product description.
We see ourselves not just as suppliers, but as partners embedded in our customers’ success. Decision-making anchored in production floor facts, not boardroom theories, sets us apart. Isopropyl 3-Aminocrotonate may look just like another chemical name, but the experience, rigorous manufacturing, and real-world usage behind it give our clients the edge they need in demanding applications.