| HS Code | 406640 |
| Product Name | Polyethylene Glycol Mono Allyl Ether HMA-06Z |
| Chemical Formula | C9H18O4 (varies by PEG chain length) |
| Appearance | Colorless to pale yellow liquid |
| Molecular Weight | Approximately 240-400 (depends on PEG chain) |
| Assay Purity | ≥99% |
| Density | 1.05-1.15 g/cm3 (at 25°C) |
| Solubility | Soluble in water and most organic solvents |
| Boiling Point | 240-270°C (decomposes) |
| Flash Point | >110°C |
| Viscosity | 30-90 mPa·s (at 25°C) |
| Cas Number | 27274-31-3 |
| Refractive Index | 1.440-1.455 (at 20°C) |
As an accredited Polyethylene Glycol Mono Allyl Ether HMA-06Z factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The Polyethylene Glycol Mono Allyl Ether HMA-06Z is packaged in a 25 kg blue HDPE drum with secure sealed lids. |
| Container Loading (20′ FCL) | Container Loading (20′ FCL) for Polyethylene Glycol Mono Allyl Ether HMA-06Z: 12MT (1200kg per IBC drum, 10 IBCs per container). |
| Shipping | The chemical **Polyethylene Glycol Mono Allyl Ether HMA-06Z** is shipped in tightly sealed, corrosion-resistant containers ranging from 25 kg drums to 200 kg barrels. Packages are clearly labeled, handled with care, and protected from moisture, heat, and direct sunlight during transit to ensure product stability and safety. |
| Storage | Polyethylene Glycol Mono Allyl Ether HMA-06Z should be stored in a cool, dry, and well-ventilated area, away from direct sunlight, heat sources, and incompatible materials such as strong acids or oxidizers. Keep the container tightly closed when not in use to prevent moisture absorption and contamination. Storage temperature should generally be below 40°C. Avoid freezing and prolonged exposure to air. |
| Shelf Life | Polyethylene Glycol Mono Allyl Ether HMA-06Z typically has a shelf life of 12 months when stored in cool, dry, and sealed conditions. |
As the direct producer of Polyethylene Glycol Mono Allyl Ether HMA-06Z, we supply this specialized intermediate to process industries seeking reliable performance within surface treatment, polymer modification, and advanced material synthesis. Our technical team works with downstream partners to facilitate precise process integration and compliance with demanding sector regulations.
Major metal finishing operations use our material as a key synthesis monomer for polymeric brighteners in electroplating processes, influencing deposit morphology and leveling. This segment values narrow molecular weight distribution and controlled reactivity, allowing stable performance at high currents while meeting strict environmental and operational standards typical of high-value electronics and automotive parts coating.
Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
Leading UV-curable adhesive manufacturers choose our ether due to its single allyl functionality and controlled hydrophilicity contributions in oligomer and prepolymer synthesis. Responsible use as a reactive diluent reduces volatile organic compound (VOC) content without compromising cure speed or bonding strength, critical for circuit board assembly and advanced display production lines.
Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
Our ether is utilized as a macromonomer in the synthesis of polycarboxylate superplasticizers (PCEs), improving cement dispersion and reducing water-to-cement ratios in concrete admixtures. The presence of the allyl group enables controlled copolymerization yielding dispersants with tailored side-chain architecture for high-strength, low-shrinkage concrete mixes compliant with global construction safety and performance standards.
Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
Flexible packaging and specialty coatings manufacturers incorporate this material as a co-monomer in forming hydrophilic, crosslinkable acrylate coatings. It enables controlled film flexibility, tailored wettability, and improved ink and adhesive anchorage, all within regulatory frameworks for food-contact and low-migration printing applications.
Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
Producers of water-soluble photoinitiator systems exploit this ether as a spacer or hydrophile modifier, enhancing solubility and reactivity for waterborne UV-cured inks and coatings, particularly in packaging and medical labeling. Its controlled reactivity allows for fine-tuning photoinitiator polymer chain lengths to suit rapid-cure, low-migration, and low-odor formulation targets.
Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
Competitive Polyethylene Glycol Mono Allyl Ether HMA-06Z prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please contact us at +8615365186327 or mail to sales3@ascent-chem.com.
We will respond to you as soon as possible.
Tel: +8615365186327
Email: sales3@ascent-chem.com
Flexible payment, competitive price, premium service - Inquire now!
Polyethylene Glycol Mono Allyl Ether HMA-06Z represents a key material honed from years of experience in both synthesis and demanding industrial settings. At the plant, we measure results in consistency and performance, not just by what happens in a lab. HMA-06Z, as part of our allyl functionalized polyethylene glycol series, has grown up alongside the rise in advanced resin systems, specialty coatings, and water-soluble polymers. In our daily routine, we handle a variety of routine and custom polymer modifications, and the usage pattern for HMA-06Z keeps trending upward thanks to its controlled reactivity and reliable backbone.
Every batch of HMA-06Z comes off the reactor line with precise control over average molecular weight and degree of allylation. The “HMA-06Z” model points to an average molecular weight range that our long-term customers favor for fine-tuning solubility and curing characteristics. This model uses a mono-functional approach rather than di- or tri-functional derivatives. That means you get just one allyl group for each PEG chain — enough to introduce reactive handles, not so much as to complicate downstream processing or invite undesirable crosslinking. In many industrial applications, this simplifies the design work for formulators, whether they are developing emulsion polymers, UV-cured acrylics, or surfactant intermediates.
Where other PEG derivatives often specialize in emollient properties or bulk water solubility, HMA-06Z stands out for its ability to anchor allyl chemistry into flexible, hydrophilic chains. For instance, downstream modification by thiol-ene or radical addition becomes far more consistent due to the purity of the mono-alkoxylate fraction. Some variants in the market carry a wider distribution of side products, but we refine ours to hold a narrow band of chain lengths and a high content of mono-allyl ethers. Waste drops, and product performance stabilizes.
Product consistency is not just a catchphrase. Our customers order several metric tons at a time, expecting the same viscosity, color, and end-group purity every month. A minor drift in production can mean troublesome surprises down the road — longer cure times, unwanted byproducts, or regulatory hurdles. At the manufacturing end, there’s no shortcut. We calibrate our feeding, control our reaction temperatures tightly, and keep strict track of the initiator ratios for each run of HMA-06Z.
Compared to PEG di-allyl ethers or mixed functionality alternatives, the mono-allyl version is less likely to trigger runaway crosslinking or overreact in multi-step syntheses. We see this every day on the technical service line. Formulators using HMA-06Z report smooth blending with acrylates, urethanes, and certain silanes — without the risk of gelation that plagues di- or tri-functional options. This balance is especially valuable in UV-cured composites and water-dispersible adhesives, where speed and reproducibility rule the production schedule.
At our site, we never ship a batch of HMA-06Z before running it against our time-tested benchmarks: hydroxyl value, allyl percentage via NMR, and color on the Hazen scale. These tests are not ritual. They catch adjustments early so we can solve issues before the product enters your plant. We get direct feedback that end-users value the clarity and reproducibility of HMA-06Z, especially in coatings needing light color and low viscosity. Some partners use it to graft soft segments onto tough, brittle networks. Others value its reaction speed during UV curing. In a way, these hands-on results confirm what we see in the QC lab.
Most HMA-06Z users focus on key physical indicators more than theoretical numbers. Based on years of scale-up and field use, customers notice that the typical viscosity range provides easy handling by pump or batch addition. The material flows well at room temperature, but doesn’t thin out excessively in heated applications, avoiding drips and metering errors. Water content stays below half a percent, thanks to vacuum stripping and in-line drying after reaction. No formulation can tolerate a moisture-laden intermediate, particularly once you introduce isocyanates or other moisture-sensitive reagents.
Practical formulators want a product that dissolves quickly, yet holds its clarity in solution. Our customers working in waterborne polyurethane dispersions report faster pre-mix and lower haze due to the well-controlled chain length and absence of cross-contaminants. They notice fewer fish-eyes in finished coatings, and a predictable reaction with hardeners. That's a result of keeping our production lines clean and maintaining single-use reactor trains for each family of PEG ethers — control over cross-contamination goes far beyond paperwork. That's direct feedback from those who get their hands on the barrels at the next step in the chain.
Anyone who has spent a decade or more around polyether facilities has stories about leaks, mislabeling, or the “mystery barrels” that complicate safe operation. HMA-06Z, by virtue of its consistent specs, seldom throws surprises in storage or pumping. Unlike some lower-grade ethers, it stays stable in closed containers for long stretches and doesn't build up pressure or emit troublesome odors. Still, care in labeling and ventilation always pays dividends, as does regular tank inspection.
We supply material in high-integrity drums and sometimes in bulk containers for large sites. This isn’t just about offering convenience, but about reducing risk: no one wants the headaches that come from leaky packaging or improper sealing. From a manufacturer's view, it’s easier to manage logistics and provide traceability if every shipment follows the same procedures, backed up by batch certificates linked to QC data. Most shipping stories boil down to consistency and open communication, not heroic interventions.
The trend in specialty chemicals is toward reducing residual organics and wash solvents. As we invested in new process trains and vapor recovery systems, we saw immediate improvement in both air emissions and the cleanliness of outgoing product. HMA-06Z benefits from this: its production process reclaims and purifies reaction media. Waste levels dropped and downstream wastewater management simplified. No production process is perfect, but continuous upgrades to filtration, waste heat usage, and closed-loop cleaning have cut operational costs and, according to downstream partners, reduced odor and discoloration in finished goods. These are results we measure not from marketing claims, but from real bills and process audits.
With every new series of resins or adhesives, formulators ask us how HMA-06Z will interact with new initiators, catalysts, or filler technologies. The main advantage they report is predictability: one reactive site per molecule means less batch-to-batch drift and easier troubleshooting. In the field, that translates to fewer product recalls, less scrap, and easier scale-up from pilot to production quantities. In coatings, the mono-allyl version can fine-tune flexibility, raise gloss, or improve wetting — all without gross changes to drying time or hardness. Performance in living systems rounds out its reputation: it provides a reliable anchor for further polymer modification without drawing regulatory questions tied to unknown oligomeric byproducts.
From our side of the industry, we notice that HMA-06Z helps research teams bridge the gap between exploratory and commercial-scale chemistries. A development chemist told us that moving from lab-grade to full-scale doesn’t disrupt their formulation because our manufacturing matches cubic-meter runs to the gram-level tests. This helps our team — and theirs — spend less time on revalidation and more on rapid roll-outs.
Back in the early days, PEG derivatives for polymer modification tended to fall in two camps: high-functionality, rapid-gelling monomers or bulk-excipient grades with little or no reactive end groups. HMA-06Z represents a step forward: the mono-allyl group delivers just enough reactivity to be usefully versatile, but nothing superfluous. Our line workers and technical specialists often see the problems that come from over-functionalized PEGs and their tendency to crosslink unexpectedly, especially if a batch sits on a shelf or end-users swap from a slow, batchwise process to continuous mixing. One customer in the adhesives field tried switching to a competitor’s di-allyl ether product and ran into runaway curing that required retooling the whole production line. Shifting back to HMA-06Z helped restore control, trim losses, and win back customer trust.
Some widely distributed mono-allyl PEGs use less refined feedstocks, producing broader molar mass distributions or higher levels of side-chain impurities. Our formulation — and the limits we set on allowable polydispersity — emerged after long discussions with downstream R&D partners and from troubleshooting premature color formation in high-purity applications. Tight process windows, along with real-time verification of molecular weight via SEC and NMR, brought those numbers down. In the end, nobody remembers the formulation that worked in a 5-gram flask but failed at 5 tons. HMA-06Z, selected by customers over and over again, tells us we hit a sweet spot.
Outside the lab, most of our product finds its way into resin modification, specialty adhesives, high-end inks, and functional coatings. In waterborne acrylic dispersions, formulators value the predictable migration and reactivity of the mono-allyl group, enabling sharper control of latex size and improved shelf life. Manufacturers of UV-curable resins use HMA-06Z to tweak flexibility or, in combination with acrylate monomers, to introduce precisely one soft, hydrophilic segment per chain. This helps their products pass demanding flexibility and impact standards in electronics or automotive applications.
Paint and ink producers often face the challenge of balancing flow, leveling, and drying rates — especially where strict VOC regulations limit available solvent choices. HMA-06Z’s clean reactivity lets them introduce crosslinkable sites without undermining film clarity or storage life. In adhesives, it serves as a modifiable backbone for pressure-sensitive and structural systems, especially where the end use demands a combination of toughness and water interaction. Feedback from customers working in both batch and continuous operation highlights the low tendency toward undesired phase separation, reduced fisheye formation, and a smoother appearance in the finished product.
Running a manufacturing plant gives one a distinct perspective on technical support. Questions that come from the field often focus on “what changed?” — small drifts or unexpected problems that affect scale-up. HMA-06Z, thanks to documented, stepwise manufacturing and a team on hand who know the reactor floor, lets us track down root causes with more certainty. If a customer records a viscosity drift, we trace it all the way back to monomer batching, temperature logs during the PEG addition, or the vacuum schedule before final drum filling. This approach relies not on abstract quality systems, but on operators and chemists who have seen a lot of batches and thousands of quality checks.
We field ongoing requests to customize molecular weight or allylation degree. Instead of producing endless minor grades, our plant team figured out how to offer one or two variants with real-world impact: broad enough to fit most uses, narrow enough to maintain strict standards. Production flexibility, combined with experience, gives customers room for innovation without risking supply disruptions — an advantage we've built up by learning from mistakes and successes alike.
Supply disruptions, unexpected impurities, or regulatory slowdowns cost everyone. By keeping HMA-06Z process routes consistent and updating only when we can prove a net improvement, we give customers breathing room. On-site audits, batch traceability, and a bias toward in-house verification mean that whether the material ends up in a scientific polymer plant in Europe or a coatings facility in Asia, users see the same behavior every run.
Product stewardship influences everything, from waste management policies to operator training. The experience of running batch after batch for years led us to invest in energy efficiency, vapor recovery tools, and safety management not just for compliance, but for the peace of mind of those working near the reactors, transfer lines, and filling machines. Fewer accidents and more stable operation reduce downtime and spare changeover cost for both us and end-users.
Working in the chemical industry brings daily changes and ongoing challenges. HMA-06Z’s strong market presence rests on feedback from the people who mix, react, store, and use the product day in and day out. Decades of upgrades — in reactor metallurgy, process automation, filtration, and drying — feed directly back into downstream performance. As regulations evolve, so does our commitment to high-purity, single-functionality PEG ethers.
Looking forward, we’re exploring closer ties with customers on both process engineering and new application development. HMA-06Z is no longer just another intermediate: it serves as a bridge in specialty materials from adhesives to biomedical devices. We’ve seen its mono-allyl functionality carry forward into new latexes, into co-polymer backbones, and even into emerging green chemistry initiatives where low-toxicity, clarity, and reproducibility are the benchmarks.
Many manufacturers chase short-term gains by wide-spec or multi-functional PEG derivatives, but our experience suggests a different path pays off better in the long run: consistent, single-purpose materials, produced with care and a firm grip on process detail. HMA-06Z stands as proof. From the reactor operator to the technical team, each contribution shapes a product known not just for molecular structure, but for real-world reliability where performance and safety can’t take a back seat.