| HS Code | 689728 |
| Product Name | Allyl Alcohol Polyoxyethylene Polyoxypropylene Ether 80-HA-1050 |
| Appearance | Colorless to light yellow transparent liquid |
| Molecular Weight | Approx. 1050 g/mol |
| Active Content | About 100% |
| Ph Value | 5.0 - 7.0 (1% aqueous solution) |
| Hydroxyl Value | 40-60 mgKOH/g |
| Cloud Point | About 85°C (1% aqueous solution) |
| Solubility | Soluble in water, alcohol, and various organic solvents |
| Viscosity | Approx. 200~400 mPa.s (25°C) |
| Density | 1.06~1.10 g/cm³ (25°C) |
| Hlb Value | Approx. 13-15 |
| Storage Temperature | 5~35°C |
| Chemical Formula | C3H5(OCH2CH2)n(OCH2CH(CH3))mOH |
As an accredited Allyl Alcohol Polyoxyethylene Polyoxypropylene Ether 80-HA-1050 factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The **Allyl Alcohol Polyoxyethylene Polyoxypropylene Ether 80-HA-1050** is packaged in a 200 kg blue plastic drum with secure sealing. |
| Container Loading (20′ FCL) | For 20′ FCL, typically 16-18 metric tons of Allyl Alcohol Polyoxyethylene Polyoxypropylene Ether 80-HA-1050 are loaded in 200kg drums. |
| Shipping | Allyl Alcohol Polyoxyethylene Polyoxypropylene Ether 80-HA-1050 should be shipped in tightly sealed, clearly labeled, chemical-resistant containers. Transport in accordance with local, national, and international regulations. Protect from heat, sources of ignition, and moisture. Use secondary containment to prevent leaks and ensure carriers are trained in chemical handling and emergency procedures. |
| Storage | Allyl Alcohol Polyoxyethylene Polyoxypropylene Ether 80-HA-1050 should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area away from heat, ignition sources, and direct sunlight. Avoid contact with strong oxidizing agents. Storage areas should have adequate spill containment and the chemical should be kept away from incompatible materials to prevent hazardous reactions. |
| Shelf Life | Shelf life of Allyl Alcohol Polyoxyethylene Polyoxypropylene Ether 80-HA-1050 is typically 12 months when stored in a cool, dry place. |
As a direct manufacturer, we produce Allyl Alcohol Polyoxyethylene Polyoxypropylene Ether 80-HA-1050 to supply specific advanced processing requirements in high-end industrial markets. Our materials integrate into several downstream sectors where surfactant performance, emulsification, and process stability are critical for final product quality. Below are confirmed industry scenarios demonstrating the differentiated uses of our material, each reflecting real-world formulas, regulations, and finished-goods applications.
This surfactant-grade polyether plays a vital role as a nonionic emulsifier during the production of waterborne acrylic emulsions for coatings, adhesives, and sealants. Manufacturers rely on it to stabilize monomer droplets, support particle size control, and maintain batch homogeneity throughout temperature and pH fluctuations during polymerization, directly influencing gloss and mechanical resilience of the emulsion film. Its chemical structure ensures low foaming and shear stability, demanded by high-throughput reactors for architectural coatings and PSA adhesive lines.
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Foam producers use this polyether as a silicone-free cell structure modifier in flexible polyurethane slabstock lines. Its balanced hydrophilic-lipophilic structure minimizes foam collapse and supports uniform rise, crucial for mattress, automotive, and furniture foam comfort profiles. Added compatibility with major polyols and isocyanates ensures stable mixing and maintains end-product physical properties, even under variable water/catalyst levels, facilitating process optimization for different density specifications.
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This nonionic surfactant addresses increasingly strict requirements for residue-free industrial part cleaning, especially in precision metal fabrication. It enables penetrating removal of rolling oils and particulates from steel, aluminum, and copper surfaces without promoting corrosion or residue formation. Industrial users in automotive, semiconductor, and aerospace sectors appreciate its proven rinseability, compatibility with water-miscible fluids, and non-reactivity under high-alkaline or chelated solutions.
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Textile dyeing and finishing mills use this specialty polyether to boost scouring efficiency and optimize dye penetration for synthetic and blended fibers. Its selectivity toward removing natural waxes, size, and spinning oil residues enables reproducible shade development and prevents dye migration or streaking. As a nonionic surfactant, it remains stable across wide temperature and pH ranges required in jet dyeing, winch, or continuous pad-batch systems, and shows low-foaming even under turbulent flow conditions.
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Agroformulators incorporate this polyoxyethylene-polyoxypropylene ether as a dispersant and suspending agent in water-based crop protection suspensions. It enables stable dispersion of active ingredients, reduces sedimentation, and prevents nozzle blockage during application, even in high-hardness irrigation water. Its compatibility with major pesticide actives and support for low-foam application ensures consistent field performance and minimizes downtime in large-acreage spraying operations.
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Competitive Allyl Alcohol Polyoxyethylene Polyoxypropylene Ether 80-HA-1050 prices that fit your budget—flexible terms and customized quotes for every order.
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At our facility, the journey of each batch of Allyl Alcohol Polyoxyethylene Polyoxypropylene Ether, identified here as 80-HA-1050, begins with raw selection and careful process monitoring. Precise handling of allyl alcohol, ethylene oxide, and propylene oxide allows us to guide the reaction to produce this unique polyether. Each reaction run gets sampled, with experienced operators trained to spot slight shifts in viscosity, hue, or clarity. We rely on hands-on experience alongside instrumentation to determine if the resulting blend meets our standards before it moves into storage or shipment.
80-HA-1050 brings together properties that appeal to both manufacturers and formulators who need a balance of hydrophilic and hydrophobic character. Its backbone comes from the polyoxyethylene and polyoxypropylene chains, with the allyl group providing an anchor for further reactivity. The polyoxyethylene portion brings solubility and wetting action in aqueous systems, while the polyoxypropylene sections contribute to defoaming and spreadability. What we see most on request is its use in specialized surfactant packages, intermediate synthesis, and as a base for copolymerization.
During the formulation work, chemists often comment on the ease with which 80-HA-1050 integrates into systems where other polyethers might separate or cause haze. Waterborne coatings, textile finishes, and even performance cleaners benefit from its compatibility. Down the line, operators report reduced gelling, less clogging in pipelines, and a noticeable drop in residue on equipment compared to blends with higher polyoxyethylene content alone.
This specific model, coded as 80-HA-1050, stands out because of its calculated ratio of oxyethylene to oxypropylene groups. Years of running different reaction feeds have taught us that veering too far in either direction shifts solubility and viscosity, affecting downstream performance. In this model, the ethylene oxide units are present in a proportion that supports rapid wetting, while the propylene oxide brings a slipperier, silkier texture to the final product.
Typical appearance under standard lighting is a clear to slightly hazy liquid. Viscosity readings usually fall within a range that enables straightforward pumping with standard equipment, eliminating the need for excessive heating during bulk transfer. From batch to batch, density and pourability maintain a tight window due to strict quality checks—our plant staff test every tank before release.
If we look back at our lab notebooks, small differences in water content or process temperature swing the final product’s performance. Controlling these variables, and learning from decades of tweaks and customer feedback, has allowed us to hone this particular version of the polyether so it behaves as expected in high-volume production.
We ship sizable quantities of 80-HA-1050 to factories with a diverse range of end uses, but real results show up on the production side. Formulators in the coatings sector praise the smooth blending and consistency in film-forming aids. They report fewer problems with blushing or surface defects, suggesting strong compatibility with both water- and solvent-based paints.
Textile processors see vigorous wetting on synthetic fibers and improved antistatic finishes when they swap in 80-HA-1050 for conventional nonyl phenol ethoxylates. By dropping the overall surfactant dosage, process engineers have cited minor reductions in wastewater load. Industrial cleaners given a boost with this product tend to lift oily soils better, with downstream benefits in reduced equipment fouling.
Colleagues who develop monomer systems also mention the value of the allyl group—rare enough in routine polyethers—which opens up new polymerization routes and crosslinking potential. Adhesives and sealants, for example, can exploit this reactive handle to create stronger bonds without excessive fillers or plastisols.
Comparing Allyl Alcohol Polyoxyethylene Polyoxypropylene Ether 80-HA-1050 to common surfactants or polyether glycols reveals where it stands apart. We regularly get questions about substituting ethoxylated alcohols or simple block copolymers. Most of these lack the allyl group, limiting their possible reactivity in process chemistry, especially for targeted graft copolymerizations.
Old-style ether surfactants can struggle with shelf stability, especially at elevated temperatures or in aggressive chemical environments. In contrast, the mixed backbone in 80-HA-1050 delivers greater oxidative stability and resistance to breakdown. This matters for formulators targeting products that sit on store shelves for months or that face fluctuating warehouse temperatures.
Competitive products loaded with higher polyoxyethylene sometimes foam excessively in recirculating wash systems or cause streaking in coatings. Our blend tempers that, with customers noting speedier rinse off and better flow in formulations. On the flip side, compared to pure polyoxypropylene ethers, 80-HA-1050 avoids issues with incomplete dispersion or loss of cleaning power in dilute conditions.
Our close discussions with users also bring out environmental considerations. With changes in regulatory pressure, especially in regions moving away from alkylphenol-based agents, the structure of our product gives formulators the basis for producing more responsible cleaning agents or coatings.
On the manufacturing side, stability in viscosity makes pump operation more predictable, minimizing sudden pressure spikes that wear out seals or lines. Production managers get fewer shutdowns from clogged valves or sediment. Batch-to-batch uniformity eases the challenge for process control, reducing the need for mid-shift tweaks or unplanned chemical additions.
In multi-purpose plants, where lines switch between surfactant, polymer, and emulsion runs, equipment turnaround times shrink since the residue from 80-HA-1050 rinses out faster. Maintenance reports tally fewer fines or disposal costs tied to stubborn surfactant build-up. Teams running spray dryers or emulsion systems remark that dryer fouling falls, improving throughput by points that, over a year, add up to some decent savings.
Wherever accurate dosing plays a role, the consistent flow properties of 80-HA-1050 help automated metering systems perform with less calibration drift. For pilot line tests, managers tell us they spend less time troubleshooting foaming or mixing delays, freeing up resources for scaling up more profitable lines.
Maintaining the reliability of 80-HA-1050 starts on the shop floor. Technicians run routine Karl Fischer titrations to keep water content within target range, adjusting process feeds whenever readings edge out of spec. They monitor reactivity during polymerization using titration and FTIR analysis, ensuring the allyl group survives the reaction. Results go up on the daily logs, and anything that strays from the norm gets flagged—no container leaves without cross-checking physical and chemical parameters.
Teams rotate in pairs during transfer and filling, trained to spot slight cloudiness or phase separation. Even small deviations in odor can hint at background reactions—our QC staff document these, tracking to batch records. Systematic checks for residual monomer and byproducts, especially in larger runs, have caught out-of-spec situations early, saving time and protecting end-product value.
To limit equipment corrosion or scaling, metals in contact with 80-HA-1050 run stainless steel or polytetrafluoroethylene linings. Pipe clear-outs between runs also get checked for residue, with tank sampling documenting cleanliness before switching to new product batches. These small steps build confidence for our clients that each shipment maintains the same profile as samples submitted for approval.
Years of fieldwork have shown that surfactants often frustrate in unexpected ways—cloud points shift unpredictably, films turn sticky, and separation can appear without warning. When formulators call us with odd performance in finished goods, more often than not, mismatched solubility proves the culprit. 80-HA-1050’s fine-tuned balance of ethylene and propylene oxide units has let us deliver much-needed consistency to customers working under tight production tolerances.
Coating specialists look for fast leveling and even surface wetting, especially on nonporous substrates. Trials confirm that this product reduces “fish-eye” defects and supports pigment dispersion better than simpler polyether surfactants. Textile applications see less foaming and streamlined rinsing—key for continuous dye baths and aftertreatment tanks.
In challenging cleaning applications, especially with heavily loaded soils, small improvements in wetting and emulsification matter. Plant operators switching from generic block polymers report less greasy residue on cleaned surfaces and tanks. Fewer service interruptions for line flushing have improved their output with less downtime.
Strict wastewater regulations put focus on every chemical that passes through a plant. 80-HA-1050, derived without alkylphenol structures, finds growing favor in regions phasing out legacy surfactant classes. Our in-house environmental staff periodically run biodegradability and aquatic toxicity tests, collaborating with downstream users to document safe processing and eventual breakdown.
Process water sampling before and after use indicates lower COD and surfactant residuals compared to older agents with longer-chain nonyl or octylphenol groups. These findings translate into shorter treatment cycles and less regulatory review, freeing up plant engineers to focus on core production.
Polyether structures based on propylene oxide often offer lower aquatic toxicity than straight-chain alkylphenols, and we have verified this profile with outside labs. Each generation of formula revision tends to lean further in this direction, keeping our product ahead of evolving rules while building credibility for downstream certifications.
Working in chemical manufacturing doesn't leave much room for surprises or untested claims—every new product must prove itself run after run. 80-HA-1050 entered our lineup after long pilot batches, simulation runs, and stressful real-world trials. Production engineers often remind us how little changes in raw quality or reaction temperatures can ripple through, so we invest in consistent feedstocks and process monitoring, even if costs tick up.
As one manager put it, “We only hear about a batch if something goes wrong—steady product performance is its own reward.” This rings true with 80-HA-1050, where our quietest customer is usually the happiest. Tech support calls have dropped and returns for specification drift have become rare, proof that the rigorous quality focus pays off.
The chemistry behind the product gives formulation chemists added flexibility, especially where regulations steer customers away from older, less sustainable surfactant classes. The consistent molecular structure, stable viscosity, and good handling properties keep plant managers on schedule and allow for tweaks in end product without rewriting the process book each time.
Development of 80-HA-1050 drew on hours at the bench and production line, as well as direct input from users looking for better alternatives to standard surfactant and polyether solutions. By playing with ethylene and propylene ratios, and testing every conceivable batch tweak, we crafted a product that offers a meaningful improvement over both mono-block and random copolymer designs.
We work with R&D partners to further modify side chains, seeking new properties for next-generation products—whether for even tighter environmental compliance or new niches in coatings, adhesives, or specialty cleaners. Supporting the allyl group’s reactivity remains a focus, opening doors for more involved graft copolymer work or specialty application fields.
We have learned not to chase every new chemical trend—a solid foundation of trusted products does more for both our plant and our customers than constantly switching formulas. But with each revision, customer feedback and new lab data help us fine-tune both product and service, always keeping those real-world results at the center of our process.
Many plant engineers and formulation chemists prefer dealing directly with the production source. We coordinate closely with customers during trials, providing batch data, blending tips, and troubleshooting insights backed by years in both the plant and the lab. Understanding our product from the inside out lets us answer questions before they create headaches for downstream users.
Whenever a customer signals a change in process or raw material supply, we draw from experience with 80-HA-1050, helping assess the impact and, if needed, suggesting adjustments. Our staff, from line operators to technical sales, remains committed to transparency, sharing composition data and test results in response to customer scrutiny.
Quality does not end at the tank; tracking feedback from real plant runs helps drive our ongoing improvements. Some of the best updates to 80-HA-1050 came from users in unfamiliar applications, expanding where and how this chemistry contributes to better results—lower waste, higher output, improved safety, and smarter compliance.
Experience shows that every run, every tank, and every end-use environment teaches something new. Allyl Alcohol Polyoxyethylene Polyoxypropylene Ether 80-HA-1050 reflects years of iterative adjustment, grounded in plant-based reality, not marketing theory. Transparent communication, relentless quality control, and a willingness to learn from failures build the framework that customers have come to trust.
The product keeps its edge against competitor offerings because each batch comes from people who know both the chemistry and the challenges of the industries it serves. By building on solid facts, sharing our hands-on insights, and putting real-world feedback ahead of brochures, we continue to fill the role of not just a supplier, but a partner to those who build, clean, and finish modern materials.
