|
HS Code |
541483 |
| Chemical Name | 3-Methacrylamidophenylboronic Acid |
| Synonyms | MAPBA |
| Molecular Formula | C10H12BNO3 |
| Molecular Weight | 205.02 g/mol |
| Cas Number | 440324-58-9 |
| Appearance | White to off-white powder |
| Solubility | Soluble in DMSO, DMF; slightly soluble in water |
| Purity | Typically ≥98% |
| Storage Temperature | 2-8°C |
| Sensitivity | Moisture sensitive |
| Melting Point | 195-198°C |
| Functional Groups | Methacrylamide, Phenylboronic acid |
| Use | Monomer for polymer synthesis |
| Contains Anhydride | May include varying amounts |
As an accredited 3-Methacrylamidophenylboronic Acid (contains varying amounts of Anhydride) factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 3-Methacrylamidophenylboronic Acid, 5g, is packaged in a sealed amber glass bottle with Sigma Aldrich labeling and safety information. |
| Shipping | 3-Methacrylamidophenylboronic Acid (containing varying amounts of anhydride) is typically shipped in tightly sealed containers to prevent moisture absorption and anhydride degradation. The chemical is shipped at ambient temperature as a solid, with proper labeling and documentation per chemical safety regulations. Handle with care—avoid exposing to moisture or incompatible substances. |
| Storage | **Storage Description:** 3-Methacrylamidophenylboronic Acid (contains varying amounts of Anhydride) should be stored in a cool, dry, and well-ventilated area, tightly sealed in its original container. Protect from light, moisture, and incompatible substances (such as strong oxidizers). Refrigeration (2–8°C) is recommended for long-term storage. Ensure proper labeling and follow applicable chemical hygiene and safety guidelines. |
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We've manufactured 3-Methacrylamidophenylboronic Acid (3-MAPBAA) with pride for years, supporting partners in academic research, diagnostics, and specialty polymers. In our plant, every batch gets close inspection because we know that quality in phenylboronic acids can spell the difference between successful functionalization and wasted material. 3-MAPBAA’s boronic acid moiety responds in predictable, tunable ways in biological systems, while the methacrylamide group lends this molecule straightforward integration into polymers.
Working hands-on with this product day in, day out gives us a very practical understanding of what matters most to chemists and formulation scientists. We see the results of consistent particle size, moisture control, and the significance of anhydride content both in reactivity and shelf life, especially when customising batches for clients focused on medical or diagnostic applications. It’s these details—too often overlooked in bulk commodity chemicals—that help keep critical projects on track.
Controlling the level of anhydride in each production run starts long before dispatch. Environmental factors such as humidity play a role, and specific drying protocols impact both the purity and stability. For many synthetic routes, some amount of anhydride forms during processing and shipping; we monitor that closely. In practice, the presence of anhydride introduces added options for downstream chemistry, enabling different crosslinking profiles and influencing solubility characteristics in aqueous systems. Some researchers prefer fresh boronic acid, while others look for that slight increase in anhydride to assist in certain advanced polymerizations. We keep an ear to the ground with our clients to find the mix that fits their protocols.
Every time we scale up, we see firsthand how the control of side components, such as anhydrides, translates to reproducibility batch by batch. In the lab, even a small variance in these byproducts can throw off results. It's not just about hitting numbers on a spec sheet; it's about understanding which attributes give the end user freedom to innovate. For those working in formulation labs, nuanced differences in hydrolytic stability caused by variable anhydride content often prove critical.
Working directly with research and development teams has shown us the real-world impact of high-purity MAPBAA. It’s proven effective as a functional monomer for hydrogels sensitive to sugars and in affinity chromatography. Sensors built with MAPBAA repeatedly show high selectivity in glycan recognition—no surprise given the boronic acid’s affinity for diols. The methacrylamide end lets chemists graft this molecule onto a variety of polymer backbones; this property gets leveraged in countless biosensor platforms and responsive drug delivery matrices.
Customization is often key. Some labs require extra-dry material, enhancing reactivity for surface modification; others want more stable forms that withstand long-term storage in the open. We see the trends. For example, researchers developing smart insulin therapies need rigorous reproducibility, while engineers creating new membranes for water filtration demand robust mechanical integration. So, we adapt—small changes in formulation can support one group’s need for fast swelling, while another might want controlled release profiles that rely on precise copolymerization kinetics.
Several partners in medical diagnostics ask for 3-MAPBAA tailored for conjugation, prepared under reduced humidity and oxygen to prevent premature hydrolysis. This can introduce more anhydride, but that property often matches their workflow better. It all comes down to finding the balance between shelf-life, handling ease, and the desired downstream chemical response.
We’ve scaled up production for both multi-kilo and pilot batches, always learning new tricks from process engineers and scientists working in the field. Handling 3-MAPBAA in tonnage quantities, compared to the earliest tens-of-gram research runs, means every step—drying, blending, packaging—has been rethought. We’ve learned that even subtle shifts in moisture uptake or packing gas can alter the proportion of active boronic acid to anhydride, so our QC team runs regular titrations and NMR checks.
Commercial partners sometimes push for hyper-specialized variants, with minimum or maximum anhydride content, depending on what they’re synthesizing downstream. Our facility is flexible—we can dry product in vacuum ovens with controlled ramping schedules or finish with mild heating under nitrogen. This helps us deliver material that behaves consistently in the most demanding laboratory setups.
Our experience also tells us that packaging matters for this product. Bulk bags, small jars filled under nitrogen, and custom vials each have their place, dictated by how sensitive the customer’s chemistry is to oxidants or even trace moisture. Feedback from the field guides these choices, and every request for a new packaging format starts with a phone call and discussion—not a form letter or generic brochure.
3-MAPBAA is a step up from the usual boronic acids stocked by big name general chemical suppliers. As a manufacturer, we see the differences in raw material handling, purification, and shelf stability compared to standard phenylboronic acid or boronic acid pinacol esters. The additional methacrylamide portion shifts the application space dramatically, introducing a site for radical copolymerization. In the hands of a skilled polymer chemist, that backbone makes it possible to build everything from superabsorbent materials to innovative biomedical coatings.
From a synthetic perspective, 3-MAPBAA needs more attentive crystallization and drying schedules. Simple mishandling can yield a product that’s too wet to package or, on the flip side, one that’s taken up too much anhydride. This impacts reactivity, so we track the precise ratio batch by batch. Commodity boronic acids get shipped loose in bulk drums, sometimes with little more than a desiccant bag tossed inside. We treat MAPBAA differently because our end users depend on reliable, reactive material with a defined profile.
We’ve also seen the competitive landscape change over the past few years, as researchers discover more about polymer-immobilized boronic acids and the unique reactivity of MAPBAA. For anyone looking to make glucose-responsive hydrogels or design sensors with ultra-low detection limits, there’s not really a direct substitute. Our experience with functional group purity and reactivity puts us in a position to help solve those challenging formulation puzzles the generic products can’t address.
We answer our phones and emails directly. Too often, customers run into roadblocks because they get handed off to a distributor or trading company who can’t answer technical questions. On our end, it’s the production chemists and QC team who solve problems. If a user’s MAPBAA crystallizes differently than expected, we want to hear about it—often, it’s a tweakable parameter like residual water or storage temperature. We document each production run meticulously so we can trace any variation right back to the root.
Our R&D projects don’t just focus on the next molecule to sell; we keep refining how MAPBAA blends into polymeric matrices, thinking about how shifts in anhydride content affect hydrogel structure and long-term durability. This kind of feedback loop—delivering samples, observing real-world lab test results, reworking protocols—brings us closer to a partnership with each customer rather than just a sales transaction. Our lab techs swap stories with clients about specific challenges—block reactions, poor conversion rates, stability headaches—and we adjust our processes accordingly.
We’ve experimented with both glass and inert polymer containers, extending shelf life and reducing caking. It sounds simple, but we learned from a research partner’s experience: oddly enough, a certain glass bottle led to better long-term storage in humid labs. These are lessons you don’t get from trading companies or paperwork shuffling; it takes being on the floor and hearing back from the bench scientists week after week.
No chemical comes off the production line perfect every time, so we keep close tabs on analytic data. We’ve seen how tiny shifts in raw phenylboronic acid quality can ripple into MAPBAA’s final form. Purity means more than a number on a COA. Kinetic studies, repeated titrations, stress aging—these are part of our routine, not checkboxes for compliance. So if a batch runs out with a slightly different anhydride profile, we know exactly why.
Our customers don’t want chemical mystery. We give straight answers about current inventory and technical details because the people using MAPBAA need certainty. The same holds true for regulatory documentation and trace analysis. Food contact, biocompatibility, and solvent extractables—each project brings a fresh set of requirements, and real answers come from in-house data, not a dusty file from five years ago.
For those working in high-value diagnostics, purity and consistency trump cost and speed. We take that seriously, adapting syntheses and blending routes to ensure that no matter what volume leaves our docks, it performs as expected in downstream polymerizations. That kind of commitment isn’t always profitable in the short term, but long years of feedback teach us that a loyal customer is worth the extra care.
Many of our long-term clients work in fast-moving fields: biomedical engineering, environmental monitoring, advanced materials. They come to us because big-box chemicals rarely deliver true batch-to-batch consistency, or the nuanced profile needed for fine-tuned applications. With 3-MAPBAA, it’s not just the chemistry—it’s about reliable interaction with proteins, carbohydrates, and water in the context of specific end-use scenarios. Our production team sits down with researchers to review polymer chain transfer rates or optimize swelling ratios, often revisiting old protocols in light of new discoveries.
The value goes beyond the material itself. We help design test panels, set up stability protocols, and even engineer pilot-scale downstream production systems. Every new product tested with MAPBAA opens up more opportunities to learn, adapt, and fine-tune the manufacturing process. An analyst in a university clean room and a process chemist making diagnostic test strips might both use MAPBAA, but their requirements aren’t interchangeable. Only by speaking directly and frequently do we get a sense for what matters in their unique application.
Many of the world’s most promising self-healing hydrogels, smart wound dressings, and biosensor platforms start with that confidence: the MAPBAA they ordered behaves as promised and any unusual results get practical troubleshooting from the people who made it. Working from the factory floor, we stay close to each batch, ensuring no surprises travel down the supply chain.
We prioritize the health of our employees and the communities near our plants. Each run of MAPBAA gets produced with air handling systems that tightly control employee exposure, especially during blending or drying steps where dust can become an issue. Spills and cleanup procedures follow strictly reviewed protocols, developed in consultation with our own in-house safety team who have walked all the production lines. These practices reduce loss, improve yield, and minimize unnecessary exposures—keeping accidents and losses close to zero year after year.
Our responsibility extends to the environment as well. Waste streams from manufacturing MAPBAA contain boron, and we treat all effluents through multi-stage systems to bring runoff under local and international standards. Much of this technology we created in direct response to evolving environmental guidelines, not simply to check a box.
Operating both R&D and full-scale production under one roof means that we see all the pain points and victories firsthand. If an approach to synthesis makes better material but slows down cycle times, it’s not a hypothetical tradeoff—it’s a discussion between quality, sales, and operations right here, involving people who will stand by their word next quarter and next year. We know which suppliers of raw materials offer reliability and which ones offer just a low price. Our team meets weekly to review production trends, investigate outliers, and address feedback that comes in from the field, no matter how unusual.
This collective wisdom sharpened by years in the industry gets baked into each shipment of 3-MAPBAA. We check that every order, from a small lab jar to pallet-scale consignments, passes the same set of tests and delivers the analytical transparency clients expect. If a university lab runs into problems or a development partner needs more technical backup, real experts answer—often the same chemists and operators who made and QC’d the product.
Interest in innovative polymer-boronic acid compounds keeps growing. Many partners are moving into applications we hadn’t imagined five or ten years ago: microfluidics, rapid point-of-care diagnostics, artificial pancreas systems, and next-generation affinity resins. We constantly invest in both our technical staff and infrastructure to stay at the forefront of these trends. It’s more than a business—to most of us in the plant, it’s a point of professional pride.
As we look ahead, we focus on building relationships with researchers and engineers who value quality, traceability, and creative cooperation. That means sharing what we know about the chemical and taking a hands-on approach to every new project, every custom modification, and each new scientific challenge. The world never stops inventing, so neither do we.
Whether developing the next smart polymer or scaling up for commercial diagnostic kits, customers deserve a supplier able to answer technical questions, troubleshoot problems, and genuinely partner in discovery. We see 3-MAPBAA not just as a commodity, but as an invitation: a material that’s as much about collaboration and expertise as molecular structure. Every time a new challenge arises, it’s another opportunity to prove what dedicated, accountable manufacturing can deliver.