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2-Benzyl-2-(Dimethylamino)-4'-Morpholinobutyrophenone

    • Product Name 2-Benzyl-2-(Dimethylamino)-4'-Morpholinobutyrophenone
    • Alias Irgacure 369
    • Einecs 404-980-4
    • 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
    VTB
    Specifications

    HS Code

    833391

    Iupac Name 2-benzyl-2-(dimethylamino)-1-(4-morpholinophenyl)butan-1-one
    Cas Number 119344-86-4
    Molecular Formula C21H28N2O2
    Molecular Weight 340.46 g/mol
    Appearance White to off-white crystalline powder
    Purity Typically ≥98%
    Solubility Soluble in organic solvents (e.g., DMSO, ethanol, acetone)
    Melting Point Varies; approximately 58–62°C
    Boiling Point Decomposes before boiling
    Storage Conditions Store at 2-8°C, protect from light

    As an accredited 2-Benzyl-2-(Dimethylamino)-4'-Morpholinobutyrophenone factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing White plastic bottle with a tamper-evident cap, labeled "2-Benzyl-2-(Dimethylamino)-4'-Morpholinobutyrophenone, 25g" and hazard symbols.
    Shipping 2-Benzyl-2-(Dimethylamino)-4'-Morpholinobutyrophenone is shipped in tightly sealed containers, protected from light and moisture. It should be handled according to standard chemical safety protocols. Shipping is typically conducted as a non-hazardous item, following relevant regulations to ensure safe transport and storage. Proper labeling and documentation accompany every shipment.
    Storage 2-Benzyl-2-(Dimethylamino)-4'-Morpholinobutyrophenone should be stored in a tightly sealed container, away from light, heat, and moisture. Keep it in a cool, dry, and well-ventilated area, separate from incompatible substances such as strong oxidizers. Ensure proper labeling and access only by trained personnel. Follow all relevant safety guidelines and regulations for handling chemicals in the laboratory.
    Application of 2-Benzyl-2-(Dimethylamino)-4'-Morpholinobutyrophenone

    Applications of 2-Benzyl-2-(Dimethylamino)-4'-Morpholinobutyrophenone in Industrial Manufacturing

    As a direct manufacturer specializing in advanced photoinitiators, we have supplied 2-Benzyl-2-(Dimethylamino)-4'-Morpholinobutyrophenone to global industrial producers for over a decade. Backed by strict in-plant QC and full traceability, our material supports precise photopolymerization requirements in sectors where UV-curable technology drives performance and efficiency. Below we outline the key downstream applications where this photoinitiator consistently performs to customer specifications.

    1. UV-Curable Inkjet Printing Inks

    UV-curable ink formulations depend on this material to trigger fast, uniform curing in demanding industrial inkjet applications. By supporting efficient free radical polymerization under medium- to high-intensity mercury or LED lamps, printers achieve instant drying on substrates including PVC, synthetic paper, and treated metals. This accelerates high-speed variable data jobs and specialty graphics production lines.

    Industry compliance standards

    • Swiss Ordinance on Materials and Articles in Contact with Food (SR 817.023.21, printing inks sections)
    • European Printing Ink Association (EUPIA) Exclusion List
    • ISO 2846-1:2017 for graphic technology inks
    • RoHS Directive for printed electronics substrates

    Typical usage ratio

    • 0.5–2.5 wt% relative to the total formulation; optimized based on lamp intensity and ink film thickness

    Downstream process integration

    • Added at the pigment dispersion or let-down stage before final viscosity adjustment; initiator must fully solubilize for consistent reactivity in continuous or batch mixing lines

    Final product types

    • UV-curable inkjet inks for wide-format industrial printers
    • Digital printing inks for variable data packaging
    • High-opacity ink systems for backlit displays

    2. UV-Cured Wood Coatings

    Formulators in the furniture and flooring sectors utilize this initiator to achieve rapid line speeds and durable surfaces in coatings for hardwood, MDF, and engineered panels. Photoinitiator choice affects not only curing efficiency but also migration levels and final gloss, especially given the need for clear, defect-free finishes.

    Industry compliance standards

    • EN 71-3:2019 (Safety of toys—migration of certain elements)
    • REACH Regulation (EC) No 1907/2006 (Annex XVII—for chemical content of finished panels)
    • ISO 16000-9 (VOC emission standards for indoor coatings)
    • DIN 68861-1 (Chemical resistance of surface finishes)

    Typical usage ratio

    • 1.0–3.0 wt% based on the total solids in the clearcoat or pigmented topcoat; actual level guided by lamp type and required cure depth

    Downstream process integration

    • Blended after oligomer/polyester dispersion and pigment grind; formulated with secondary amines/amine synergists in inline mixing for high reactivity on moving panel coating lines

    Final product types

    • UV-cured clearcoats for parquet and laminate flooring
    • Furniture topcoats with high scratch and stain resistance
    • Intermediate primers for UV conveyor lines in cabinetry production

    3. UV-Curable Adhesives for Electronics Assembly

    Electronics device manufacturers specify this material in adhesive systems for rapid bonding of components where thermal curing is not suitable. Its absorption characteristics match with UV-LED sources, delivering controlled cure without substrate heating, which is critical for plastics, flexible circuits, and temperature-sensitive modules.

    Industry compliance standards

    • IPC/WHMA-A-620 (Requirements and Acceptance for Cable/Wire Harness Assemblies)
    • IEC 61249-2-21 (Halogen-free electronic materials)
    • ISO 10993-5 (Biocompatibility for medical-grade electronic assemblies, if needed)
    • RoHS 2011/65/EU (Restriction of Hazardous Substances in electronics)

    Typical usage ratio

    • 0.7–2.0 wt% in the adhesive’s monomer blend, precise amount tailored to layer thickness and transparency

    Downstream process integration

    • Dosed with the acrylate/urethane monomer premix immediately before automated dispensing and roll-to-roll or sheet-to-sheet UV exposure

    Final product types

    • Structural and flexible UV adhesives for PCB and FPC assembly
    • Encapsulants for camera modules and sensors
    • Instant-bonding adhesives for display module lamination

    4. UV-Curable 3D Printing Resins (Additive Manufacturing)

    Producers of photopolymer resins for 3D printing platforms engineer their recipes to maximize polymerization speed and mechanical properties. This initiator enables fine detail and layer definition on light-based printers operating in the 365–420 nm range, including DLP and SLA technologies, especially for industrial prototyping and small-batch component manufacture.

    Industry compliance standards

    • ISO/ASTM 52900:2021 (Standard Terminology for Additive Manufacturing)
    • EN ISO 10993-1 (Biological evaluation if producing medical models)
    • UL 94 (Flammability for printed electronics casings)
    • Company-specific QMS for critical manufactured end-use applications

    Typical usage ratio

    • 0.8–1.6 wt% of total resin, adjusted for print speed, part wall thickness, and printer’s UV emission profile

    Downstream process integration

    • Blended into liquid resin base just prior to packaging; end user pours directly into printing vat or automated feeding system

    Final product types

    • Prototyping resins for industrial 3D printers
    • Functional resin parts for automotive or aerospace mock-ups
    • Dental model printing materials

    5. UV-Curable Nail Gel Formulations

    This photoinitiator supports ultra-fast curing and long-lasting structure in professional nail enhancement gels. Brand owners must balance curing speed and migration to meet global safety and labeling requirements. Application-specific blending ensures crystal clarity and chip resistance under salon-grade UV/LED lamps.

    Industry compliance standards

    • EU Cosmetics Regulation (EC) No. 1223/2009
    • U.S. FDA 21 CFR 700 Subpart B (Cosmetic product requirements)
    • IFRA (for any included fragrances in gel system)
    • GB 5296.3-2008 (Chinese cosmetic labeling)—if exporting to China

    Typical usage ratio

    • 1.2–2.2 wt% in total nail gel mix; varies based on desired cure speed, pigmentation, and lamp wavelength (365–405 nm recommended)

    Downstream process integration

    • Introduced with oligomers and reactive diluents under vacuum agitation before colorant addition; accuracy is ensured by lot titration for net migration and photoreactivity testing

    Final product types

    • Salon-grade soak-off UV/LED nail gels
    • Builder gels for nail extensions
    • Base and top coats in professional gel kits

    6. Optical Fiber Coating Resin Production

    The material plays an essential role in ensuring fast, defect-free cure of primers and secondary coatings in fiber optic manufacturing. Automated high-speed lines rely on photoinitiator-driven systems to deliver protection, flexibility, and minimal signal attenuation, each batch requiring consistent photoreactivity and purity validation.

    Industry compliance standards

    • IEC 60793-2-10 (Optical fibre—Product specifications)
    • Telcordia GR-20 CORE (Generic requirements for optical fiber and cable)
    • RoHS 2011/65/EU (Restricted substances in fiber cable coatings)
    • ISO 9001:2015 (QMS for telecom component manufacture)

    Typical usage ratio

    • 0.6–1.2 wt% in the primer or secondary coating system; formulated based on UV absorption characteristics and cure line speed

    Downstream process integration

    • Dispensed into the acrylate prepolymer at in-line mixing stations immediately before extrusion through fiber coating dies and continuous UV irradiation

    Final product types

    • Primary and secondary UV-cured coatings for optical fibers
    • Ribbon and tight-buffered fiber units
    • Field-deployable fiber modules for telecom networks
    Free Quote

    Competitive 2-Benzyl-2-(Dimethylamino)-4'-Morpholinobutyrophenone prices that fit your budget—flexible terms and customized quotes for every order.

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    Certification & Compliance
    More Introduction

    2-Benzyl-2-(Dimethylamino)-4'-Morpholinobutyrophenone: Process Insights from the Manufacturer’s Bench

    Purpose-Built Performance for Photoinitiation

    Every batch of 2-Benzyl-2-(Dimethylamino)-4'-Morpholinobutyrophenone we produce comes out of years of troubleshooting, process revision, and long inhalations of glassware cleaning solvent on late-night shifts. As direct manufacturers, we know the quirks of this photoinitiator better than any spec sheet. Seasoned users recognize it under the moniker BDMAB, usually by its sharp, dependable kick in free radical polymerization and its pale crystalline appearance. Its use in UV-cured inks and coatings stems not just from its broad absorbance range, but from a purity profile that’s hard to touch unless you stick to careful, controlled plant operation—trust me, the wrong temperature ramp or a lazy crystallization adds a headache no trader ever sees.

    Reliable Synthesis Through Consistency

    Running BDMAB starts with hard-won reliability in raw material sourcing. We’ve tested dozens of benzyl halides and dimethylamines and have learned the subtle differences between them. We commit to the same suppliers through cycles of industrial upsets, and we’ve revised our specs after catching minor shifts in their products—sometimes from a new drum, sometimes from new staff at the upstream producer who don’t yet know that every time you introduce water, yield plummets. Our proprietary protocol for morpholine coupling shaves hours off a batch and delivers a cleaner product stream because we’ve spent months tuning batch mixing speeds and solvent ratios. Instrument-only labs don’t see these differences; workers on the reactor floor certainly do.

    Batch Quality Shows in End-Use

    Even customers with high-end UV cure lines have noticed when a photoinitiator does its job without side effects. Years ago, poor prep and rushed filtration in the industry led to yellowing and off odors in cured polymers. Through better crystallizations and aggressive in-process verification, we cut down to impurities below detection limits for GC and HPLC. That translates directly to clearer polymers and higher throughput in printing, coatings, and adhesives applications—especially in fields where visual or olfactory properties define acceptability. These are not features you add with glossy marketing. You achieve them with the sort of repetitive discipline usually seen only at the finest chemical manufacturing outfits.

    Performance in High Throughput Environments

    BDMAB’s specific structure—an alpha-amino ketone supported by morpholine—gives it an edge in both absorption and radical generation. In production terms, this means fewer initiator weight percent is necessary at the formulation stage. We’ve tracked customer case studies that demonstrate a 15 to 30 percent decrease in photoinitiator loading compared to simpler benzoin ethers or even conventional aminoalkyl ketones. In roll-to-roll applications and deep cure adhesives, plant operators see lower costs per square meter and fewer reject batches due to incomplete curing. Feedback loops with our technical partners help us focus on these real-world metrics instead of theoretical reactivity curves.

    Purity and Waste Management: Unseen but Essential

    Over years, we saw how even small impurities—especially residual amines, ketones not fully converted, or trace water—can compromise the shelf-life of downstream formulations. By rethinking filtration, solvent recovery, and even storage drum lining materials, we learned to avoid product upsets. These process choices reduce customer complaints about discoloration or unexpected exotherms at scale. They also cut overall costs by reducing the number of customer site support visits; nobody wants to troubleshoot a three-story coating line at 2:00 a.m. because a photoinitiator batch wasn’t right. Experience has taught us these investments save both reputation and money.

    Handling Considerations and Worker Safety

    Manufacturing BDMAB isn’t just about the end product. Safety in handling highly basic amines and potentially reactive halides drove us to overbuild fume extraction and train our line workers in emergency procedures far stricter than the minimum mandatory rules. Exposure risk doesn’t end in the reactor bay; leaks or spills in storage need rapid, well-understood responses to avoid both personal injury and environmental non-compliance. We’ve discovered over time how batch sizing and container selection—even the right drum ground wire—play into both workplace safety and regulatory peace of mind. These are details chemical sellers rarely experience, but makers live with every day.

    Key Distinctions from Other Photoinitiators

    Comparisons often land on benzoin ethers and simple amino alkylphenones. Our direct experience shows BDMAB stands apart through its unique balance of absorption range and quantum efficiency. Many photoinitiators can get a cure started under a mercury lamp, but BDMAB excels where you demand both fast initiation at industrial line speeds and a low tendency toward yellowing. We beat conventional benzoin ethers not only in absorbance window but also in the cleanness of post-cure products. Our in-plant users report less waste, lower scrap, and fewer line stoppages. These gains have nothing to do with what’s on a spec sheet and everything to do with the muscle memory of making, filtering, and characterizing every lot.

    Specification Built for the Real World

    Our material’s melting point, absorbance characteristics, bulk density, and particle size stay within a tighter range than industry averages. We measure every batch constantly—using both traditional glass thermometers and modern UV-Vis spectrometers—driven mainly by the feedback from those who run fast curing lines. They don’t want surprises or mid-batch variability; we don’t either. Over the years, we found that consistency wins far more repeat business than hitting a statistical median on technical data sheets. Some think specifications are just a regulatory hurdle. From our perspective, they are the marker of how well we listen to and learn from partners up and down the industry.

    Scaling Up Without Sacrificing Detail

    Increasing output isn’t just a matter of swapping in a bigger reactor or hiring more technicians. We design new plant lines to echo the best elements of our legacy process: deliberate temperature control, oversized filtration, and well-calibrated nip roller systems for slurry handling. Scaling up has revealed the truest test of our process: maintaining the same control over by-product formation and purity at 10,000-liter scale as at the kilo bench. Skimping on these points means more phone calls and chaos at customer plants. By sticking to the cautious approach even as we grow, we protect both our own workers and those who rely on our chemistry every day.

    End-Use Feedback and Continuous Learning

    Direct dialogue with customers—from lab managers to plant maintenance—has fine-tuned our BDMAB process year after year. Reports from UV-cured plastic sheet manufacturers prompted our latest improvements in purity, as even metal trace contaminants showed up in surface finish issues at high throughput. By keeping an open line with formulators scaling up new inks or adhesives, we watched how BDMAB performs not just in theory but stacked up against manufacturing floor realities: downstream dispersion, blend compatibility, storage stability, and product safety. Some lessons are learned too late if you don’t stay connected; having a technical feedback loop always sharpens our next production run.

    Environmental Responsibility in Production

    Chemical manufacturing faces growing scrutiny for emissions, water usage, and waste management. We developed dedicated solvent recovery units and spent months reducing waste amine emissions below regulatory limits—motivated as much by daily air monitoring in our own plant as by a sense of environmental responsibility. Runoff and emission controls take real time and money, but regulatory compliance and clean site audits reflect a deeper commitment to both community and workforce safety. Avoiding shortcuts on waste handling and process vent scrubbing proves to local partners and customers alike that we’re in this for the long haul, not squeezing out pennies at the cost of environmental risk.

    Product Stability and Shelf Life

    The best photoinitiator in the world is useless if it degrades during storage. Regular real-time and accelerated stability studies—conducted on finished lots—form the backbone of our batch release. Customers might not see the time and money invested in climate-controlled warehouses and inert gas blanketing, but the payoff is no surprise hotspots, no preshipment staleness, and fewer in-field failures. Over years of shipping everywhere from desert climates to deep freeze, we have zero tolerance for quality cycles that risk formulation stability. If any batch exposes risk, we hold it and resolve the cause internally before a kilo ever leaves the plant.

    Adaptability for Specialized Applications

    BDMAB’s unique reaction profile and shelf stability serve industries from high-speed printing to composite resins. For specialty users, tweakable parameters like particle size, lot color, and fine content allow closer targeting of niche applications. Our plant regularly runs custom cuts for groups with specific requirements in dentistry, electronics, or medical devices. These users don’t want off-the-shelf approximations; they require custom, reliably repeated material quality. Hundreds of daily adjustments to filtration, drying, or packing achieve that—no brochure can imitate the real teeth of these production tweaks.

    Regulatory Awareness and Traceability

    The regulatory world shifts often. Every change forces us to double-check not just our finished product but all upstream input streams. We maintain detailed batch records—going far beyond what is required—ensuring full traceability for every output drum and tote. Plant staff review global regulatory listings each quarter, anticipating changes that could disrupt supply chains or customer certifications. Our direct role as manufacturer means problems get solved at source, not by shipping blame up or down a trading chain.

    Challenges and Solutions in Supply Chain Dynamics

    Recent years brought shipping delays, shortages, and price spikes in key raw materials. Instead of hoping these issues would resolve, we set up a dedicated supply chain risk team whose job is to forecast needs months in advance, develop backup suppliers, and renegotiate contracts where required. It’s tedious work—often with little immediate payoff—but it keeps us from scrambling when lead times double or a container sits stuck for weeks. Our customers in high-pressure industries depend on reliable supply for continuous operations, so we handle disruptions with both planning and backup inventory strategy, rather than last-minute crisis management.

    Customer Collaboration: Beyond the Transaction

    This product’s greatest triumphs happen not in our plant, but on the lines of our partners developing a new UV-cured adhesive or a medical device. We share test protocols, gather field data, and host regular operator forums to learn what works and where we can improve. Collaboration leads to better material, but it also spreads knowledge and innovation across the value chain. Our operators feel the impact when a new process detail lands on their desk—a sense of shared progress keeps both customer and manufacturing teams engaged.

    Pushing Technical Boundaries

    Our technical team spends more time than most on iterative innovation. By collaborating with research groups in academia and industrial labs, we bring new insight to improvements in photoinitiator responsiveness, process throughput, and material handling. The best ideas rarely emerge in a boardroom; they come from hands-on trial and error, sometimes by challenging what seems “good enough.” We’re not afraid to rebuild a piece of process equipment twice in six months if the changes deliver a better, safer, or more robust product. The attitude permeates from shop floor to management, proving itself in the resilience and capability of BDMAB batches built today.

    Building Trust Through Experience and Integrity

    Direct relationships with users help shape every improvement. We don’t hide behind jargon or dodge responsibility when a production run falls short. Admitting errors, sharing fixes, and investing in process upgrades all create an environment where customers trust us not only for quality but also for honesty. Our crew finds it easier to deliver their best work when they know their results matter up and down the supply chain.

    The Future of BDMAB Production

    Market needs have shifted over the years—what was urgent in UV printing now finds new demand in electronics and specialty adhesives. We constantly update our facilities and processes to beat new application requirements. Scaling to meet global demand without cutting corners in quality or safety soaks up time and capital, but there’s no shortcut if you want to keep your reputation. As more industries wake up to the possibilities of new photoinitiators, we meet each challenge with the well-practiced patience of those who have seen both good years and difficult stretches.

    Why Direct Manufacturing Makes a Difference

    Every drum of 2-Benzyl-2-(Dimethylamino)-4'-Morpholinobutyrophenone leaving our plant has roots in experience, technical focus, and deep respect for both upstream and downstream partners. Making BDMAB directly lets us own each quality step, fix every weak link, and adapt to shifting needs without waiting for permission. The real difference in your production line’s uptime and material consistency comes from people who have stood over the reactor, tweaked the dials, and made the hard calls—not just those who move material around. Our hands—and the hands of our customers—tell this story every day.