|
HS Code |
408555 |
| Name | o-Carboxylacetoacetanilide |
| Chemical Formula | C11H11NO4 |
| Molar Mass | 221.21 g/mol |
| Appearance | Off-white to pale yellow crystalline powder |
| Melting Point | 216-218 °C |
| Solubility In Water | Slightly soluble |
| Cas Number | 132-47-6 |
| Density | 1.38 g/cm³ (approximate) |
| Boiling Point | Decomposes before boiling |
| Ph | Neutral to slightly acidic (in aqueous suspension) |
| Uses | Intermediate in azo dye synthesis |
As an accredited o-Carboxylacetoacetanilide factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | White, opaque plastic bottle labeled "o-Carboxylacetoacetanilide," 100g net weight, tamper-evident seal, chemical safety symbols, manufacturer details. |
| Container Loading (20′ FCL) | Container Loading (20′ FCL) for o-Carboxylacetoacetanilide: Typically 12-14 metric tons packed in 25 kg bags, safely palletized, and securely loaded. |
| Shipping | o-Carboxylacetoacetanilide should be shipped in tightly sealed containers, protected from moisture, heat, and direct sunlight. Use appropriate chemical-resistant packaging and label clearly as a laboratory reagent. During transport, adhere to local and international regulations for non-hazardous chemicals, ensuring secondary containment to prevent leaks or spills. Handle with standard laboratory safety precautions. |
| Storage | o-Carboxylacetoacetanilide should be stored in a tightly closed container in a cool, dry, and well-ventilated area away from incompatible substances such as oxidizing agents. Protect the chemical from moisture, direct sunlight, and heat sources. Ensure appropriate labeling and keep the storage container in a dedicated chemical storage cabinet. Use proper personal protective equipment when handling and storing the substance. |
| Shelf Life | Shelf life of **o-Carboxylacetoacetanilide**: Stable for at least 2 years when stored in a cool, dry place, tightly sealed. |
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Purity 98%: o-Carboxylacetoacetanilide with 98% purity is used in high-performance organic synthesis, where it ensures consistent reaction yields and product quality. Melting point 195°C: o-Carboxylacetoacetanilide with a melting point of 195°C is used in pigment intermediate preparation, where it provides thermal stability during processing. Particle size <50 microns: o-Carboxylacetoacetanilide with particle size less than 50 microns is used in fine chemical formulations, where it enhances homogeneity and dispersion. Moisture content ≤0.5%: o-Carboxylacetoacetanilide with moisture content ≤0.5% is used in pharmaceutical intermediate manufacturing, where it prevents hydrolytic degradation. Stability temperature up to 120°C: o-Carboxylacetoacetanilide stable up to 120°C is used in dye synthesis, where it maintains structural integrity during extended heating stages. Color index less than 2: o-Carboxylacetoacetanilide with a color index less than 2 is used in cosmetic ingredient production, where it guarantees formulation clarity and minimal discoloration. Assay ≥99%: o-Carboxylacetoacetanilide with an assay value of ≥99% is used in laboratory-scale research, where it allows for precise quantitative analyses and reproducibility. Solubility in ethanol: o-Carboxylacetoacetanilide with excellent solubility in ethanol is used in agrochemical formulation, where it enables efficient blending and active ingredient delivery. |
Competitive o-Carboxylacetoacetanilide prices that fit your budget—flexible terms and customized quotes for every order.
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At our facility, o-Carboxylacetoacetanilide draws a lot of attention among the specialty chemicals we create. Over the years, colleagues and I have come to appreciate this compound’s consistent role in colorant and pigment production. Its structure—anchored by an ortho-carboxylic group attached to acetoacetanilide—sets it apart in both reactivity and applicability. The industry often refers to it simply as o-CAAA. The product’s appeal stands in how it optimizes both performance and batch-to-batch repeatability in pigment synthesis, something highlighted across our QA findings and feedback loops with end-users.
Sourcing quality raw materials remains vital. We favor high-purity aniline derivatives during synthesis and refine our workflow to control moisture content at all stages. The process typically includes a careful control of temperature, timed introduction of reagents, and purification without over-reliance on excessive filtration, which can degrade yield. Many manufacturers encounter variable melting points in end product if conditions fluctuate; by maintaining strict reaction parameters, our technical team has reduced fluctuations to a negligible range.
Ours is not a mass-commodity approach. Our batches rarely stray from the typical melting point window of 200-204°C. Moisture content, impurity profiles, and color index are all scrutinized during QC. With years spent optimizing parameters, noticeable improvements in both yield and downstream processability emerged. This attention to detail ensures that customer feedback always references high consistency in physical form and coloration.
Pigment synthesis leverages o-CAAA as a crucial coupling component. Azo pigments require both purity and a tightly defined molecular structure in their intermediates in order to produce robust, stable color formation. As users from leading pigment houses note, lower grades lead to color fading and inconsistent batch results—often noticed only after completed product leaves the factory floor. The presence of the ortho-carboxyl group enables strong ionic bonding with a wide array of pigment partners, providing differentiators in both fade resistance and blending potential.
Experience from technical support calls shows that formulations using general-purpose acetoacetanilide often display lower dispersibility and color intensity. In contrast, o-CAAA’s reactivity facilitates brighter, longer-lasting shades, particularly in yellow and orange pigment lines. That stability stems largely from the improved resonance structures available in the ortho-substituted configuration, something well-established in academic studies but much more vividly seen in real-world manufacturing outcomes.
Polymer applications have also begun incorporating o-CAAA. Its efficieny as a cross-linking agent in specialty resins popped up after extended kinetics trials. Consistency over long reaction times and resistance to thermal decomposition makes it a candidate in high-performance settings where basic intermediates falter.
It helps to remember that end-users value more than published specs—they care about practical outcomes, efficiency, and reliability. Our experience reflects that; traceability down to the lot ensures that process deviations never go unexplained. Several clients have told us that with generic or blended intermediates, mix uniformity and hue stability wander, creating extra downstream waste and reprocessing. By holding tight reins on ingredient origin and stepwise synthesis details, we deliver peace of mind alongside product.
Third-party labs occasionally compare intermediates, noting factors like solubility and sediment formation in pigment extracts. Our o-CAAA demonstrates low haze in waterborne formulations, and repeat color strengths match closely from batch to batch. Granule size distribution is monitored in each drum, as clumping can hinder production speeds and cause machinery downtime. We found that engaging directly with blending technicians in the field prevents many avoidable headaches.
It’s easy to talk about o-CAAA just as a chemical identifier, but real value emerges in production metrics and feedback from formulation labs. Unlike common acetoacetanilide, the ortho substitution on the aromatic ring confers better reactivity with diazonium salts—critical to pigment coupling. That delivers intensity and lifespan sidestepping the fading issues of less pure, para-substituted analogs.
We’ve noticed cost-saving trends from clients who switched to our product. They report lower adjustment rates at the milling stage, fewer rejected batches, and improvements in throughput. Some said energy use dropped as pigment grinding times shortened—likely thanks to faster, more complete coupling reactions.
Where para-isomers draw attention for certain specialty pigments, o-CAAA finds a sweet spot for most standard yellow and orange shades. Chemically, the ortho carboxyl directs the electron density toward the reactive site in a way that minimizes unwanted by-products. Pigment chemists often push for this specific intermediate when working with environmentally sensitive applications, since fewer remediation steps are needed for waste streams.
The product’s granular form flows efficiently in automated dosing systems, which reduces machine maintenance. In one facility review, maintenance logs documented a 12% drop in screen blockages measured over two years after switching. This type of operational evidence does not catch attention on a certificate of analysis, but means measurable time and cost savings for the partner.
Over two decades, demand for o-CAAA has shifted from just pigment makers to broader specialty chemical markets. High-performance coatings and polymers benefit from its cross-linking functionality. Textile dye houses see gains in colorfastness. Some resin formulators value the improved bonding, which translates into abrasion resistance in specialized films and sheets. Whenever customers experiment with different synthetic routes, our technical support stays involved, sharing both observed pitfalls and tips for batch scaling.
We’ve received repeated confirmation from end users correlating longer textile dye life with o-CAAA sourced directly from controlled synthesis. Customers in ink and paint sectors highlight superior shelf stability. Because of the tight regulation of the impurity profile and drying step precision, downstream processes run predictably, seldom requiring extra solvents or dispersants.
Regulatory shifts in the chemical market often show up as compliance paperwork, but years of proven group-wide compliance for o-CAAA smooths audits and regulatory reviews. Most import zones recognize our documented origin and handling procedures, and auditors report minimal deviation from stated controls.
Plant workers who handle the bulk bags appreciate predictable particle size. Low dust formation contributes to safer working environments, reducing personal protective equipment fatigue and cleanup times. Frequent user meetings reveal gratefulness at not having to rework so many production runs due to ingredient caking.
We have put energy into designing handling instructions and storage protocols. While some competitors focus mostly on final yield, we measure product aging during storage and transport. The moisture barrier liners in every shipment do more than protect product—they preserve reactivity for months, matching our own accelerated aging studies. That stability pays off for customers with unpredictable procurement cycles.
The product offers substantial benefits in process auditing as well. Certainty in both input and output gives us a reputation for reliability. A customer once mentioned that, after several years buying direct, they logged fewer incidents of batch reprocessing related to pigment intermediates, freeing up capacity for other improvement projects.
Comparisons to alternate acetoacetyl compounds paint a clear picture. Many generic products show broad melting point ranges or higher color impurities. For companies aiming to raise performance in colorants, that means more unpredictable hues. Ours maintains a sharper impurity profile, which suits those who care about regulatory compliance, especially in export scenarios where colorant consistency ties directly to sales volume.
Some pigment houses experiment with para- or meta-substituted versions, only to settle back to ortho derivatives for their decreased side product formation. The core molecular difference translates directly into cleaner end pigment, which matters in both high-end coatings for automotive use and in the growing food packaging sector, where pigment migration stirs regulatory scrutiny.
Older methodologies drew from less refined starting materials, resulting in more purification steps and higher waste disposal fees. By modernizing raw material handling and process batch controls, our o-CAAA outpaces older intermediates in both environmental friendliness and raw material efficiency during production.
A further distinction: our QC team monitors heavy metal content closely, aligning with recent changes in safety requirements from international downstream customers, particularly in Europe and North America. That has reassured pigment formulating partners, some of whom lost business after contaminated batches from less monitored sources.
Collaboration shapes our approach. Much of what we learned about product improvements originated from hands-on communication with chemists and scale-up managers. When pigment yields drifted, we invited technical leads to tour the plant, analyzing every unit operation in real time. Transparent sharing of chromatograms and impurity analyses solidified trust, which came back in the form of continued long-term contracts.
For pigment producers scaling up, the transition from lab-scale to tonnage shipments often reveals gaps in process control. Our technical team walks through those changes, troubleshooting drying temperatures, blending speeds, and storage humidity controls as needed. Real-world feedback has led to several upgrades in packaging and labelling, many of which now mean faster incoming inspection and reduced downtime upon arrival.
Direct access to the manufacturing team can allow for tailored support as product lines shift. Some customers approach us during regulatory changes, requesting compliance documents and impurity profiles unavailable from resellers or brokers. Years of running our own product across industry standard pigment synthesis allows us to share both technical papers and in-house findings, something that has cemented our standing among quality-focused buyers.
The demand for cleaner, more sustainable chemicals shapes evolving practices across the sector. We’ve shifted to more energy-efficient drying and purification systems, cutting the carbon impact per ton produced. In our own use analysis, both energy demand and water consumption fell after modernization, enabling higher output without sacrificing purity. That detail does not always turn up in sales columns, but end customers who track their supply chain emissions benefit from these behind-the-scenes improvements.
Our research group reviews each step for both quality and compliance. Ingredient sourcing, internal audits, and documentation procedures meet standards set by clients across Europe, Asia, and North America. Regularly scheduled audits by both internal teams and accredited third parties reinforce confidence and support procurement decisions.
We see an ongoing shift toward more transparent relationships throughout the supply chain. Some pigment buyers ran into regulatory hurdles sourcing generic intermediates from uncertain origins. By maintaining detailed production records, tracking lot variations, and opening our doors to customer visits, we removed the uncertainty and supported claims during external audits.
Demand spikes often appear unexpectedly, especially during regulatory changes that sideline competing intermediates. We’ve adapted by building flexible production scheduling, supporting short runs for customers needing quick turnarounds without a drop in quality. Supply chain bottlenecks, such as raw material shortages, get handled by maintaining strong relationships with upstream partners and regularly reviewing cross-border trade policies and shipping routes.
Delivery questions are always top of mind for purchasing groups. By holding strategic safety stock and forecasting with both historical data and customer projections, we balance availability against the risks of overstocking. Measured adjustments in drying temperatures and granulation keep batches meeting the same metrics that set us apart from other suppliers.
Our long investment in o-Carboxylacetoacetanilide production rests on listening and adjusting. Insights from pigment houses, resin and coating formulators, and downstream quality managers motivate continual refinements. Each year brings new challenges—novel pigment shades push us toward even tighter impurity controls, while sustainability demands raise efficiency targets for energy and water use.
Direct experience with formulation chemists, process engineers, and operations staff influences how we manufacture and support the product. Improvements in documentation and technical support have grown directly from these relationships, helping customers minimize troubleshooting cycles and maintain focus on high-throughput production.
Through steady process control, careful raw material handling, and open communication, o-CAAA has demonstrated reliability even in demanding production environments. Long-term partnerships and practical process improvements drive ongoing upgrades, setting both product and supply chain apart in an industry driven by continual evolution and collaboration.