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Triacetonamine

    • Product Name Triacetonamine
    • Alias 2,2,6,6-Tetramethyl-4-piperidone
    • Einecs 204-707-6
    • Mininmum Order 1 g
    • Factory Site Tengfei Creation Center,55 Jiangjun Avenue, Jiangning District,Nanjing
    • Price Inquiry admin@sinochem-nanjing.com
    • Manufacturer Sinochem Nanjing Corporation
    • CONTACT NOW
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    Specifications

    HS Code

    845658

    Chemical Name Triacetonamine
    Cas Number 826-36-8
    Molecular Formula C9H17NO
    Molecular Weight 155.24 g/mol
    Appearance White to off-white solid
    Melting Point 64-66 °C
    Boiling Point 188-190 °C at 20 mmHg
    Solubility Slightly soluble in water, soluble in organic solvents
    Density 0.978 g/cm³
    Synonyms 2,2,6,6-Tetramethyl-4-piperidone
    Odor Amine-like
    Refractive Index 1.478 (at 25 °C)
    Flash Point 103 °C
    Ec Number 212-562-5
    Stability Stable under recommended storage conditions

    As an accredited Triacetonamine factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing Triacetonamine is packaged in a 500g sealed amber glass bottle with a chemical-resistant screw cap and clear hazard labeling.
    Shipping Triacetonamine is shipped in tightly sealed containers to prevent moisture absorption and contamination. It should be packed in accordance with regulatory guidelines, using appropriate cushioning and labeling as a chemical substance. Storage during transit must be cool, dry, and well-ventilated, away from incompatible materials, heat sources, and oxidizers. Handle with proper safety precautions.
    Storage Triacetonamine should be stored in a tightly closed container, in a cool, dry, and well-ventilated area away from sources of ignition, heat, and incompatible substances such as strong oxidizers and acids. Protect from moisture and direct sunlight. Store at room temperature and clearly label the container. Ensure appropriate chemical spill containment and follow standard safety protocols for handling organic chemicals.
    Application of Triacetonamine

    Applications of Triacetonamine in Industrial Manufacturing

    Triacetonamine serves as a critical intermediate and functional additive across multiple chemical manufacturing sectors. As an established producer, we supply this material for specific industrial processes where formulation precision, regulatory compliance, and consistent physical properties are essential for downstream manufacturing.

    1. UV Stabilizer Intermediate in Polymer Additive Synthesis

    Producers of HALS (hindered amine light stabilizers) employ triacetonamine as a primary intermediate, transforming it through the Mannich reaction or aminomethylation to obtain stabilizers for plastics exposed to sunlight. Stringent traceability and process controls are mandatory, especially in automotive and construction plastics, where additive purity affects polymer weatherability and compliance with safety directives. Our customers utilize triacetonamine in continuous synthesis reactors, where maintaining batch homogeneity and low residuals is central for consistent downstream polymer performance and additive certification.

    Industry compliance standards

    • REACH Annex XVII limits (EU)
    • ISO 9001:2015 Quality Management System
    • RoHS Directive 2011/65/EU (for electronics and electric plastics)
    • Food Contact Plastics: EU 10/2011 migration limits (for relevant uses)

    Typical usage ratio

    • Mol ratio: 1.0–1.3 equivalents per final HALS structural unit
    • Adjustment based on process yield and intended molecular weight of target additive

    Downstream process integration

    • Charged to aminomethylation reactors prior to condensation and finishing steps
    • Integrated in closed-loop systems with in-line phase separation and distillation purification

    Final product types

    • HALS UV stabilizer masterbatches
    • Weather-resistant polyethylene and polypropylene compounds
    • Exterior automotive coatings and plastics
    • Outdoor polyolefin films and fibers

    2. Corrosion Inhibitor Precursor for Industrial Water Treatment

    The downstream water treatment sector incorporates triacetonamine in the synthesis of quaternary ammonium derivatives used in high-performance corrosion inhibitors for closed-loop cooling systems, district heating, and process water lines. Performance in these applications requires minimal amine content fluctuation and verified absence of interfering by-products, as finished inhibitor systems must pass industry standards for safe discharge and metal compatibility. Chemical formulators dose triacetonamine as a raw starting amine, where controlled methylation and subsequent quaternization reactions dictate inhibitor kinetics and compatibility with multi-metal systems.

    Industry compliance standards

    • ANSI/AWWA B510-12 (Water Treatment Chemicals)
    • ASTM G170, G123 (Corrosion testing protocols)
    • EN ISO 9001:2015 production traceability
    • Local discharge limits for amines and organonitrogen compounds

    Typical usage ratio

    • 5–12% by weight of formulation for quaternary ammonium inhibitors
    • Precise adjustment based on target quaternization degree and metal compatibility

    Downstream process integration

    • Fed into ammonium salt reaction vessels prior to alkylating agent addition
    • Managed under controlled pH and monitored for residual amine post-reaction

    Final product types

    • Closed-loop system corrosion inhibitor blends
    • Heat exchange fluid additives
    • Industrial water circuit stabilization chemicals
    • Protective treatment solutions for industrial pipelines

    3. Agricultural Chemical Intermediate for Plant Growth Regulators

    Chemical manufacturers utilize triacetonamine as a precursor in the synthesis of cyclic ketone-based plant growth regulators, particularly daminozide and similar active ingredients. Compliance with agricultural chemical safety and purity standards drives strict control of trace impurities throughout the batch reactor process, as downstream performance and safety depend on precise amine transformation. The raw material’s feed rate and conversion efficiency directly influence the final regulator’s activity profile and residue levels, which must meet regional authorities’ limits prior to export or market release.

    Industry compliance standards

    • FAO/WHO Codex Alimentarius (pesticide and regulator impurities)
    • China GB 20684-2006 (Plant Growth Regulator Technical Requirements)
    • EPA PRIA (US) registration for new actives
    • ISO 17025 analytical method validation

    Typical usage ratio

    • 0.7–1.1 molar equivalents based on target regulator yield
    • Final ratio set according to impurity allowable thresholds and regional registration data

    Downstream process integration

    • Introduced as a starting ketone-amine in regulated vessel synthesis
    • Downstream product subject to controlled purification and trace analysis

    Final product types

    • Plant growth modulation agents (e.g., daminozide)
    • Seed and foliar spray formulations
    • Yield-enhancement agrochemical products
    • Controlled growth regulator technical concentrates

    4. Photoinitiator Synthesis Intermediate for UV-Curable Systems

    Producers of specialty photoinitiators use triacetonamine in the formation of tailored ketone derivatives for UV-curable inks, adhesives, and coatings. The incoming raw material’s purity profile, especially low moisture and trace metal content, impacts photoinitiator synthesis kinetics and downstream photoreactivity. Industrial batch and continuous synthesis platforms rely on accurate weighing and monitored amine addition, since incomplete conversion can affect polymerization rates and end-use certification, particularly in food-packaging and ink-jet printing applications.

    Industry compliance standards

    • Swiss Ordinance on Materials and Articles (SR 817.023.21, migration limits in food contact)
    • ISO 14001 environmental controls for specialty chemical production
    • Good Manufacturing Practices (GMP) for printing inks (EuPIA guidelines)
    • GHS/CLP labeling for photoinitiators

    Typical usage ratio

    • 3–8% w/w in final intermediate batch based on molecular design
    • Ratio controlled for target photoinitiator UV absorption spectrum requirements

    Downstream process integration

    • Introduced into condensation reactors feeding UV-active moieties
    • Inline chromatography used for intermediate isolation and purity confirmation

    Final product types

    • Photoinitiator concentrates for offset and screen printing
    • UV-curable lacquer additives
    • Inks for food packaging
    • Electronic coating photocuring agents

    5. Fine Chemical Precursor in Pharmaceutical Intermediate Synthesis

    Triacetonamine enables the construction of advanced intermediates for certain APIs (active pharmaceutical ingredients), primarily as a bulding block for nitrogen-containing heterocycles. Pharmaceutical manufacturers demand batch records ensuring strict control over organic impurities, residual solvents, and traceability to support regulatory filing. The use of this raw material in downstream synthesis requires validated purification methods and robust analytical data, as final intermediates must align with pharmacopeia monographs before API extension chemistry begins.

    Industry compliance standards

    • ICH Q7 Good Manufacturing Practice for Active Pharmaceutical Ingredients
    • USP/NF and Ph.Eur. monographs (for intermediate quality)
    • FDA 21 CFR 210/211 (for drug substance manufacturing)
    • ISO 9001-certified process documentation

    Typical usage ratio

    • Specific molar ratios: 0.8–1.2 equivalents per downstream heterocycle unit
    • Adjustable based on reaction scaffold and target pharmaceutical precursor

    Downstream process integration

    • Introduced into ring-forming reactions under controlled temperature and solvent systems
    • Followed by solvent exchange and multi-step purification protocols

    Final product types

    • Pharmaceutical intermediates for cardiovascular APIs
    • Nitrogen-heterocycle-based fine chemicals
    • Drug synthesis building blocks
    • Materials for R&D and scale-up pharmaceutical manufacturing
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    Certification & Compliance
    More Introduction

    Triacetonamine: Manufacturer’s Insight on a Reliable Intermediate

    Direct From the Plant: The True Story of Triacetonamine

    At our manufacturing facility, Triacetonamine has become one of the most dependable and versatile building blocks in our production lines. Unlike third parties or resellers who deal in finished batches, every kilogram leaves our synthesis vessels bearing the mark of our own quality systems and hands-on know-how.

    We produce Triacetonamine in a range of purities, but most customers require material above 99 percent purity for downstream uses. Physical form means a lot in practical factory handling. Our most ordered grade offers a consistent, free-flowing white crystalline solid. We put each lot through instrumental testing — HPLC and GC most days, plus Karl Fischer moisture titration — to make sure it meets these standards. Inspection isn’t just about ticking boxes for the certificate; blending and crystallizing at scale brings up plenty of variables, from incoming raw acetone to ammonia quality and batch reactor controls. Only hands-on troubleshooting, real pressure gauge readings, and routine cleaning prevent problems; paper-based procedures never tell the whole story.

    What Drives Industry Demand for Triacetonamine?

    Much of the world’s demand for Triacetonamine traces back to its role in making hindered amine light stabilizers (HALS). Quality here truly begins in the reactor, as these HALS additives are crucial for plastic products kept outdoors — pipes, films, automotive parts, greenhouse films, and siding. Every operator working up from monomer to masterbatch wants consistent, clean intermediate. A single off-odor or color can spell hours of rejected production.

    Some buyers ask about using Triacetonamine for pharmaceutical actives or specialty organic synthesis. Our experience tells us that early process control makes life much easier for whoever is downstream — careful temperature profiles during cyclization, steady pressure management, and working with reactants under nitrogen minimize byproduct formation. In our plant, we’ve caught batches showing tiny yellowing or excess amine derived impurities. These never leave the site; we salvage and purify until we get it right.

    Meeting Tight Specifications: Realities and Challenges

    Over the years, customers’ requirements have moved well beyond “white powder, high purity.” People ask about residual solvents, low moisture, particle size distribution, and unusual packaging. One batch headed for a large light stabilizer producer had us running the dryer much longer than usual to drive moisture below 0.05 percent. Joining packaging teams on the plant floor, I saw how traced bags — double-lined, nitrogen packed — prevented caking and extended shelf life. There is no substitute for physical presence and teamwork at these chokepoints.

    A run of Triacetonamine in 25-kilogram fiber drums means operators personally inspect fill weights, liner seals, and palletizing for overseas shipment. Projects for active pharmaceutical ingredients demand even more. We tightened controls, installed new HEPA-filtered packing areas, and sometimes switched filter aids or recrystallization solvents to hit specifications for trace metals or organic contaminants. No certificate means much if the boxes aren’t ticked after boots-on-the-ground checks.

    Comparing Triacetonamine to Other Intermediates

    Many buyers look at factors that go beyond molecular structure or theoretical yield. Triacetonamine offers a cyclic amine structure that differs from open-chain analogues like diacetoneamine. Over years of tweaking reaction setups, it’s clear that this ring structure brings thermal stability when customers need to run at higher processing temperatures or with highly reactive partners.

    People often ask how Triacetonamine handles compared with similar aliphatic amines. In practice, our crystalline product ships more easily than semiliquid or low-melting amines, and this translates to less risk of leaks, evaporation, and contamination during handling or shipping — less waste, fewer headaches for logistics staff, and more predictable factory schedules on the customer side.

    For polymer additives, the tertiary amine function in Triacetonamine stands apart from primary or secondary amines; downstream chemistries benefit from higher selectivity and fewer side reactions. This is especially true in stabilizer syntheses, where side-product formation from less hindered amines leads to color problems or drop-off in polymer protection.

    Triacetonamine Use Cases: Lessons From Decades in Chemical Manufacturing

    We have supplied Triacetonamine to operations that span several continents: major chemical parks in Europe, plastics compounds in Southeast Asia, and contract research labs in the United States. End-uses reflect the diversity and technical sophistication of our customers.

    Take light stabilizer synthesis: only Triacetonamine ensures the steric bulk and amine reactivity needed for success in making HALS derivatives. Customers often share that switching to less pure or off-grade material from brokers clogged their reactors or resulted in off-color batches — pain points nobody wants when making runs valued at millions. In our own site trials, formula tinkerers found that impurities even at the 0.1 percent range affected yields and post-processing costs.

    We also fulfill orders for specialty intermediates in pharmaceuticals. Success here depends not only on purity but also trace analysis, full impurity profiles, and bespoke packaging. Every campaign brings feedback that helps us refining batch controls and QC: conversations with customer R&D chemists bring insights that rarely come from contracts or technical data sheets.

    Beyond common uses, we supply Triacetonamine for niche areas: corrosion inhibitors, organic light-emitting diodes, and certain stepwise polymerizations. One customer ran pilot-scale experiments to graft Triacetonamine derivatives onto specialty polymers for membrane filtration, pushing our quality teams to deliver ever-tighter particle sizing and moisture thresholds. It’s these demands that shape the continuous upgrades to our synthesis and post-treatment lines.

    Handling, Safety, and Onsite Experience

    Every chemical plant operator values ease of handling. Triacetonamine, with its relatively low odor and solid state at ambient temperatures, stands out from sharp, volatile amines that can foul sensors and workspaces. Our packing lines run with local exhaust and HVAC within setpoint limits, and operators wear standard PPE without resorting to specialty gear.

    Over years of producing and packing thousands of tons, proper housekeeping, regular filter changes, and direct online monitoring have prevented most production issues. Incidents remain low and routine refreshers of training keep everyone on the same page regarding spill cleanup, compatibility, and first aid. Following the regulations isn’t about paperwork; it’s knowing your job well enough that it becomes second nature.

    Logistics impacts user experience just as much as regulatory paperwork: we keep a keen eye on container choice. Shipments by sea, air, or rail demand attentive moisture control — ruined product isn’t just expensive, it’s a mark against the entire team’s diligence.

    Traceability: The Manufacturer’s Commitment

    Our customers’ trust grows from the hard-won traceability built into every step. Batch records roll back to incoming raw material lots, energy and water meters, reactor logs, and lab analysis certificates. Only with that paper trail can anyone resolve complaints, dig into an impurity, or satisfy a regulatory audit.

    One batch sent to a medical device project triggered a full backtrace. The flagged problem had nothing to do with Triacetonamine in the end — yet our ability to share detailed timelines, from vacuum settings to filter aids used, spared our customer weeks of lost productivity. There is no replacement for that experience; peace of mind starts in the production hall, not the sales pitch.

    Periodic audits — onsite and virtual — keep our team aware that traceability is more than a slogan. Equipment is only as good as the people running it: we cycle staff through operator, testing, and documentation duties, each learning to spot issues before they become expensive problems downstream.

    Quality in Every Shipment: What Sets a Real Manufacturer Apart

    Real-world reliability comes from knowing your own reactors, storage tanks, people, and supply chain. Buying Triacetonamine straight from our facility means no relabeling, repacking, or third-hand inventory. Each batch draws from raw acetone stocks sourced under long-term agreements, and ammonia streams kept in condition by regular analysis.

    Our staff build and adjust manufacturing campaigns as the market shifts: expanding to larger batch reactors, rebalancing drying and packaging lines, or validating additional packaging sizes. Direct dialogue with compounders and R&D chemists gives us practical feedback no distant trader can replicate. When an automotive plastics customer experienced haze in film from a competitor’s material, we organized a direct lot-to-lot comparison and walked their quality control team through every step from sampling to finished compound.

    Long experience tells us that surface-level compliance is never enough. Regulatory audits — for EU REACH, US TSCA, or national standards — are just a start. We invest in in‑house testing, cross-checks, and response plans for product complaints: this means fast investigation, and, when needed, the ability to rerun and replace a batch from stock. Formal certifications like ISO 9001 are one layer; the day-to-day practice covers far more ground.

    We’d rather spend time investigating a sample returned from the field than cut corners. In one example, a customer built a new compounding plant in a tropical climate; we collaborated across departments to confirm packaging, select desiccant packs, and set up real-time condition monitoring for their first shipments. Over time, we saw those investments lead to fewer claims, stronger relationships, and return business year after year.

    Continuous Improvement in Synthesis and Treatment

    No chemical process stays static. Triacetonamine production gives us steady opportunity to innovate: tweaking catalysts, alternating batch and semicontinuous operation, or refining crystallization steps based on equipment upgrades. Our technicians and chemists lean on years of logbooks, not just textbooks. Adjusting solvent ratios or temperature ramp rates often reduces cycle times or improves product appearance more than “best practices” might predict.

    Just this past year, a recurrent minor impurity flagged during IR scanning led to a short process shutdown. The root cause traced back to a change in a secondary supplier’s acetone distillation line. Rather than blame the feedstock, we tightened reactor temperature steps and saw the problem decline to non-detect levels in less than three shifts. These practical refinements anchor our process control mindset, built over thousands of actual production hours — not just written SOPs.

    On the packaging side, customers’ demand for smaller lots and specialty solutions led us to add new drum and liner options, both for regulatory reasons and for long-haul shelf life. Ongoing lab-scale sampling lets us spot caking or off-colors that might appear after months in a warehouse, not just at dispatch.

    Across the plant, newer monitoring systems provide real-time analytics and digital logging. What matters is turning alerts and sensor data into corrective action on the floor — not letting software replace the technician’s eye.

    Technical Support for End Users: Sharing Practical Knowledge

    Even after product leaves our loading dock, we get regular calls about blending, process troubleshooting, and compatibility issues. Customers, especially those scaling up formulations, benefit from talking to engineers and chemists who’ve lived the transition from lab scale to bulk production. Suggestions rooted in actual production experience shorten lead times and cut rework.

    We’ve handled last-minute requests to adjust filling, match grades across different regional plants, replicate samples for customer process validation, and troubleshoot unexpected coloration in end products. Every technical conversation forces us to review and sometimes rethink plant routines. Customer needs drive change — everything from new purity specs to requests for greener processing solvents.

    No third-party distributor replicates that firsthand relationship. We’ve sat across the table from R&D leads, walked them through our logs, and heard out their concerns about regulatory compliance, process scheduling, or unexpected behavior in their own plants. This direct partnership helps both sides; even now, most product upgrades or new grades evolve from these hands-on conversations.

    Global Markets, Local Solutions: Meeting Evolving Demands

    Shipping Triacetonamine worldwide means constant vigilance on compliance, customs, and transportation rules. Beyond straightforward packaging, we have learned different regions emphasize different parameters: purity, compliance documentation, local labeling rules, safety data, and special packaging to withstand local climate extremes.

    Customers in some countries need full test data for trace metals content. Others give priority to photostability or request detailed shelf-life assessments. Having real control over the entire production process, from inputs to containers, lets us deliver on those needs where a reseller simply cannot.

    Each year brings new requests. Researchers and specialty manufacturers ask about renewable-source acetone; others raise questions about solvent recycling or green chemistry principles. Some see regulatory pressure rising on process byproducts or on VOC emissions. In response, we’ve invested in greener solvents, energy upgrades, and added closed-loop chilling to our plant. Every improvement carries straight benefits into our next Triacetonamine batch — not just empty words for marketing slides.

    Why Buy Direct From the Source?

    Having built and maintained Triacetonamine production for decades, we know that reliability comes from the smallest details. Raw material selection, reactor loading, batch tracking, monitoring, and human oversight all contribute to the final product’s consistency. Distributors, traders, and repackagers might promise savings on price, but firsthand accountability for every step only exists in the manufacturing plant.

    We keep everything visible, from incoming ammonia streams to outgoing fiber drums lined and banded by staff who know what matters to the next person in the chain. Clarity and candor in technical dialogue, willingness to investigate complaints, and commitment to rework or replacements — these define direct manufacturing relationships.

    Triacetonamine Looking Ahead: Future-proofing Quality

    With industry regulations tightening and customer demands evolving, quality standards for Triacetonamine continue to rise. We see more questions about full impurity profiles, renewable feedstocks, and lifecycle analysis. Updating routine protocols isn’t enough — continuous investment in people, plant, and process sits at the core of everything we do with Triacetonamine.

    Whether supplying bulk to a stabilizer plant or boutique lots to an R&D lab, we serve everyone through a single principle: hands-on, accountable manufacturing. Having walked the floor through start-ups, shutdowns, customer visits, and regulatory audits, our commitment to Triacetonamine’s quality rests on the experience of our teams and the lessons learned from every batch delivered.