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HS Code |
332277 |
| Chemicalname | N-Tert-Butylmethacrylamide |
| Casnumber | 13105-87-8 |
| Molecularformula | C8H15NO |
| Molecularweight | 141.21 g/mol |
| Appearance | White to off-white crystalline solid |
| Meltingpoint | 64-68°C |
| Boilingpoint | 84-86°C at 0.4 mmHg |
| Density | 0.986 g/cm3 |
| Solubility | Soluble in organic solvents; low solubility in water |
| Purity | Typically ≥98% |
| Storagetemperature | Store at 2-8°C |
| Synonyms | N-tert-Butyl-2-methyl-2-propenamide |
As an accredited N-Tert-Butylmethacrylamide factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | A 100g amber glass bottle, tightly sealed with a screw cap, prominently labeled "N-Tert-Butylmethacrylamide" and hazard symbols. |
| Shipping | N-Tert-Butylmethacrylamide is typically shipped in tightly sealed containers, protected from light, moisture, and heat to ensure stability and prevent polymerization. Containers are clearly labeled and handled according to chemical safety regulations. Transportation complies with relevant hazardous materials guidelines, and shipping documentation includes safety data and emergency handling instructions. |
| Storage | N-Tert-Butylmethacrylamide should be stored in a tightly sealed container in a cool, dry, and well-ventilated area away from heat, sunlight, and sources of ignition. Keep away from incompatible substances such as strong oxidizers and acids. Store under inert gas if possible to prevent polymerization, and ensure containers are clearly labeled. Follow all standard chemical storage protocols and regulations. |
Applications of N-Tert-Butylmethacrylamide in Industrial ManufacturingN-Tert-Butylmethacrylamide serves specialized roles in polymer synthesis, coatings, adhesives, and chemical modification processes. As a direct manufacturer, we enable high-purity supply and precise specification matching for downstream production environments with strict technical benchmarks. 1. Specialty Acrylic Copolymer Production for CoatingsFormulators employ N-Tert-Butylmethacrylamide as a comonomer in advanced acrylic resin systems. Its structure introduces hydrophobicity and thermal resistance in resins for aqueous and solvent-based coatings. Producers optimize combination ratios to improve block resistance, maintain gloss levels, and enhance weatherability in architectural and industrial finishes. Industry compliance standards
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2. Performance Additives in Pressure-Sensitive Adhesives (PSA)Adhesive compounders integrate N-Tert-Butylmethacrylamide to control cohesive strength and tack properties in PSA formulations. Its inclusion modifies viscoelastic profiles and enhances resistance to shear and UV-induced yellowing, which suits labels, tapes, and specialty mounting films requiring stable adhesion under stress. Industry compliance standards
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3. Hydrophobic Functional Polymer Modification in Waterborne PolymersProducers of waterborne dispersions use N-Tert-Butylmethacrylamide to adjust water resistance and minimize swelling in specialty polymers. Its hydrophobic tert-butyl moiety enables fine-tuning of swelling rates, dimensional stability, and water uptake in demanding electronics, textile, and leather applications subjected to humid conditions. Industry compliance standards
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4. Impact Modification in Engineering ThermoplasticsEngineering polymer manufacturers incorporate N-Tert-Butylmethacrylamide to customize impact strength and glass transition temperatures in thermoplastic copolymers. The material becomes integral to rigid and toughened methacrylate-based resins chosen for precision-molded electronic and automotive housing components subject to safety norms and severe mechanical loads. Industry compliance standards
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5. Crosslinking Monomer in High-Performance HydrogelsHydrogel producers select N-Tert-Butylmethacrylamide as a hydrophobic crosslinking monomer to improve mechanical strength and regulate swelling dynamics. It fits requirements for biomedical devices and absorbent articles needing controlled release or increased dimensional stability under cyclical hydration. Industry compliance standards
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6. Modifier for Photopolymer Printing ResinsPhotopolymer resin manufacturers blend N-Tert-Butylmethacrylamide to achieve sharper cure profiles, lower volume shrinkage, and heighten aging resistance in UV-curable systems. This modification enhances mechanical characteristics and print detail retention in 3D printing applications for dental, industrial, and prototype markets. Industry compliance standards
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N-Tert-Butylmethacrylamide stands out among specialty acrylamide derivatives produced in our reactors, both by its unique tertiary butyl group and by the steady interest it draws from R&D teams and production chemists. Crafting this compound and delivering it at consistent purity requires hands-on attention at every step—our chemists know the pitfalls of condensation reactions, sensitivity to heat, and strict water control needed for a batch that meets customer quality checks. With years of making it for clients ranging from specialty adhesives to biomedical research labs, patterns show up in how it performs differently than related materials.
We manufacture N-Tert-Butylmethacrylamide to a tight, reproducible specification. Each batch typically meets minimum purity specifications above 99% by HPLC. The crystalline powder granulates evenly and sits in miners’ white flakes, an outcome our grinding and drying system achieves after every condensation operation. With a melting point that reliably falls between 110–113°C, the solid holds up in storage or shipment without fast degradation.
Product loss and caking show up more often with many acrylamides, yet our upgraded packaging and desiccant use controls moisture pickup across continents, saving our clients from blocked hoppers or weighing errors on their end. We steer clear of randomized, poorly marked labeling; instead, each drum and bag gives clear batch and date-of-manufacture traceability—less downtime for audits, and clean batch genealogy for pharmaceutical or specialty material companies using the product.
Direct experience has shown that N-Tert-Butylmethacrylamide brings a special edge in free-radical polymerization because the bulky tert-butyl group blocks uncontrolled side reactions. This molecular size means polymers carry more heat-resistance than straight-chain methacrylamides. Testing with academic labs and OEM factories backs up claims: films, gels, or copolymers using this monomer keep mechanical strength after repeated heat cycles. In some automotive and coating applications, manufacturers reported near-zero embrittlement in shelf-life trials.
During crosslinking reactions, standard acrylamides don’t always give enough backbone rigidity for flexible electronics or water-resistant adhesives. The tert-butyl group on the methacrylamide not only provides chemical stability; it gives end polymers the kind of profile needed by those trialing next-generation hydrogels, battery separators, or sensor substrates. Several clients in the hydrogel sector told our technical team that repeated cycling of their finished materials in aggressive environments confirmed reduced degradation—with the N-Tert-Butylmethacrylamide playing the starring role.
From the point of view of a chemical plant, there’s no mistaking the difference in handling between N-Tert-Butylmethacrylamide and say, N-Isopropylacrylamide, N,N-Dimethylacrylamide or straight methacrylamide. The tert-butyl variant—thanks to steric effects—shows lower solutions viscosity under the same monomer loading, which can be crucial during emulsion polymerization. Internal QC testing proved reduced gelation times for specific recipes when compared against N-Isopropylacrylamide analogues.
The product’s relatively high thermal threshold makes it a natural fit for uses outside the standard water absorbent or biomedical fields where classical acrylamides suffice. Work by coating chemists using our batches showed crosslinked lattices resisting warping or flow under stress across a broader range of service temperatures. By contrast, N,N-Dimethylacrylamide often falls short, struggling to deliver comparable mechanical resilience under identical use conditions.
Customers focused on smart hydrogel R&D noted how lower exotherm and improved chain transfer profile aids accuracy during radical-induced crosslinking—good news for both automated and semi-batch reactors trading in reproducibility. Our production notes include accounts of several clients swapping out other methacrylamide options for N-Tert-Butylmethacrylamide midway through projects, owing to tighter control in their process windows and more predictable end-properties.
Over years of making specialty methacrylamides, customer feedback tells us the most common use cases for N-Tert-Butylmethacrylamide line up in areas demanding a balance of flexibility and toughness. Several polymer producers gave practical feedback on high-solid, solvent-borne adhesives formulated with our monomer; they saw higher tack and peel strength on rough, non-porous surfaces without the sticky residue or phase separation often reported with other monomers.
Medical device R&D centers purchase our N-Tert-Butylmethacrylamide for hydrogel synthesis, primarily when aiming for stiffer, biocompatible surfaces that maintain moisture content during autoclave or gamma sterilization. The compound’s resistance to hydrolysis—noticed by plant QC teams during months-long retained sample studies—becomes a tangible advantage. There’s a noticeable drop in degradation products compared to straight-chain methacrylamides left under the same conditions, minimizing the risk of leachables in clinical-grade products.
Water-based inkjet formulations sometimes employ this product to balance printability and water resistance. Specialty textile finishers working with stretchable or anti-bacterial coatings reported smooth blending and no visible yellowing post-curing, a problem that dogged runs using more reactive analogues. Discussion with advanced packaging engineers shed light on another use—barrier coatings for rigid films. Here, N-Tert-Butylmethacrylamide copolymers enable thin layers to keep out both oxygen and water vapor without cracking, especially after aging studies at elevated humidity.
Nothing about making N-Tert-Butylmethacrylamide is off-the-shelf. Operators hammering out process parameters know well that small errors in temperature control or incomplete drying lead directly to increased byproduct formation. It’s no accident that our batches show few off-odor complaints or residual monomer issues; real-world plant upgrades over years—a better recirculating water system, more accurate dosing valves, and routine validation of final content by HPLC—mean our plant teams catch issues before shipping to customers.
While some higher throughput producers run into bottlenecks linked to long drying cycles or filter clogging, our cell operating model splits large-volume orders into overlapping production cycles. This not only cuts down downtime but the level of technical communication between operations and QC means we avoid sending suspect product downstream. One episode stands out: a European coating manufacturer flagged inconsistent polymer viscosity using a competitor’s untested lot. Side-by-side comparison and follow-up analysis showed our N-Tert-Butylmethacrylamide lot matched both claimed and tested purity; the competitor’s batch had trace synthesis residues. The practical takeaway is this—tight manufacturing controls matter, especially with specialty amides.
In our experience, customers rarely make purchasing decisions based solely on product cost. Instead, we see how issues like reduced shelf-life, delayed processes, or inconsistent batch-to-batch feel stack up to far larger total costs in demanding applications. Some customers once skeptical about switching from generic methacrylamides send feedback after production runs—for example, noting improved curing rates, less yellowing, and stable polymer structure under stress as prime motivators to stay with our material. R&D departments trying to optimize for special features—like low migration in film—often come to us not from price pressure, but technical need.
We work directly with process engineers and lab managers who see how batch traceability and clean specifications feed into smoother inspections. In one instance, a large customer flagged the need for tighter particle size control and lower moisture content after facing problems with dusting during premixing. Our team modified sieving processes and improved warehouse controls, which led not only to higher in-process yields for the customer but also further inquiries from partners in the specialty paper industry who saw the improved report card.
Market requirements for performance, compliance, and durability keep rising. We recognize the critical need for chemical building blocks that not only meet published specs but also hold up under the unpredictable stress of full-scale manufacturing. N-Tert-Butylmethacrylamide meets these demands through both its chemical structure and the tangible reliability of our supply chain.
We regularly send technical teams to bench test new applications with clients. These in-person and virtual sessions have demonstrated that tweaks in initiator ratios or blend partners impact polymer outcome, especially for fine-tuning surface energy or swelling rate. Feedback from clients guides us in process tweaks and even in developing new gradations within our offering—like extra-dry lots for diagnostics or pharmaceutical excipient producers seeking to minimize any trace water.
Every time we run stability tests on retained samples, or reexamine aging batches for impurity buildup, we bank new data and pass on those learnings to customers. This feedback loop leads to material improvements—both in the product and the process—above what you find from one-off traders or repackagers. Authenticity in our expertise means we won’t recommend N-Tert-Butylmethacrylamide for every problem; we often give side-by-side application comparisons for our suite of acrylamides, letting the end use and not just chemical theory define the best fit.
Plant safety and environmental impact stay on our agenda every quarter. N-Tert-Butylmethacrylamide does not pose the same explosive polymerization risks as some faster-reacting acrylamides, but careful operation is always critical. Proper exhaust systems, industrial hygiene monitoring, and proactive operator training have kept our record clean. For waste minimization, we recover solvents wherever feasible, and optimize energy-intensive steps such as vacuum drying to limit our footprint. These aren’t just regulatory boxes—they’re concrete ways we lower raw material use and control the total system costs seen by customers.
Clients in regulated markets—diagnostic, medical, advanced coatings—appreciate full documentation showing compliance with REACH and relevant national inventories. We also share periodic test reports of residual solvents, heavy metals, and potential extractables, aware that the product’s path doesn’t end in a simple plastic or rubber good. Lab managers and procurement teams look for suppliers who match compliance with transparency. Our manufacturing reports, batch testing, and willingness to host regulatory audits all reflect that goal.
Some customers start with trial kilo packs for lab-scale studies. Our packaging team responds by offering measured, cleanroom-sealed packs that scale to drum or supersack quantiles as projects move from discovery to pilot plant, then to regular production orders. During these transitions, our technical sales keep records of process feedback, noting how heating rates, mixing windows, or polymerization catalysts affect user success stories as well as pain points.
In one recent partnership, a biosensor developer highlighted improved repeatability in their covalent attachment chemistry—after we customized packaging and added pre-shipment drying steps. This kind of collaborative development can reduce unexpected batch failures and improve reproducibility for academic and commercial scale researchers working on tight budgets and timelines.
Polymer resin makers scaling up to tonnage levels benefit from our established logistics, trained export teams, and coordinated production planning. In several cases, we have bundled technical support alongside extended stability documentation to help customers navigate regulatory hurdles and new market launches. Because of our long-term production experience and ability to tweak processes midstream, large-volume clients can count on a consistent product they won’t need to re-qualify with every new batch.
Looking across our history with N-Tert-Butylmethacrylamide, it’s clear that demand keeps growing in both established and emerging applications. The push for high-performance, durable, specialty polymers drives more research and larger batch requirements. Each feedback loop—whether from a pilot polymerization line, medical device start-up, or advanced coatings producer—feeds back to our process improvements and tighter material control.
The landscape remains competitive. Clients don’t just want a specification—they want deep expertise, honest communication about how the chemical behaves under real manufacturing conditions, and a supply chain that keeps delivering despite global logistics shocks or raw material disruptions. Our success rests not on sales patter or surface-level partnerships, but on close technical engagement and ongoing learning from every real-world outcome.
With more industrial and research groups trying to substitute or improve on legacy methacrylamide systems, the lessons we pick up from each collaboration get poured straight back into manufacturing and customer support. This isn’t a matter of trend-chasing but a core belief—real, practical expertise means being ready for every new challenge, both in the chemistry and delivery.
We’ll keep doing what has worked: paying close attention to every customer’s production environment, listening to both successes and setbacks, and channeling those lessons into the quality of each batch on the way out of our plant. For those looking for a specialty monomer that brings reliability, technical versatility, and partnered support, N-Tert-Butylmethacrylamide remains a proven tool in the modern polymer chemist’s kit.