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HS Code |
187847 |
| Chemicalname | 3-Methoxyphenoxyacetic Acid |
| Molecularformula | C9H10O4 |
| Molecularweight | 182.17 g/mol |
| Casnumber | 1878-15-5 |
| Appearance | White to off-white solid |
| Boilingpoint | No data available |
| Meltingpoint | 108-112°C |
| Density | No data available |
| Solubility | Soluble in DMSO and methanol |
| Synonyms | 3-Methoxyphenyl glycolic acid |
| Smiles | COC1=CC=CC(=C1)OCC(=O)O |
| Iupacname | 2-(3-methoxyphenoxy)acetic acid |
| Storagetemperature | Store at 2-8°C |
| Purity | Typically ≥98% |
| Refractiveindex | No data available |
As an accredited 3-Methoxyphenoxyacetic Acid factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 250g of 3-Methoxyphenoxyacetic Acid is supplied in a sealed, amber glass bottle with tamper-evident cap and clear labeling. |
| Shipping | **Shipping Description for 3-Methoxyphenoxyacetic Acid:** Ship in tightly sealed containers, protected from moisture and direct sunlight. Store at room temperature. Ensure compliance with local regulations for chemical transport. Label clearly as a laboratory chemical; not classified as hazardous for normal shipping, but handle with care. Avoid contact with incompatible materials during transit. |
| Storage | **3-Methoxyphenoxyacetic acid** should be stored in a tightly closed container in a cool, dry, and well-ventilated area, away from incompatible substances such as strong oxidizing agents. Protect it from moisture and light. Store at room temperature and avoid excessive heat or freezing conditions. Clearly label the storage container and ensure appropriate safety precautions are in place for handling and access. |
Applications of 3-Methoxyphenoxyacetic Acid in Industrial ManufacturingAs an established producer of 3-Methoxyphenoxyacetic Acid, we supply high-purity material for specialty industrial applications that rely on stringent regulatory compliance, carefully controlled formula development, and precise integration into downstream manufacturing. Our expertise supports clients with consistent quality for critical end-use sectors. 1. Intermediate for Selective Herbicide SynthesisAgrochemical manufacturers utilize 3-Methoxyphenoxyacetic Acid as a key building block for advanced selective herbicides, particularly in phenoxy acid derivative formulations aimed at cereal crop weed control. With regulatory limits on residue and composition, process engineers dose this compound based on crop species and environmental guidelines, linking it into process streams during etherification and esterification stages. Downstream synthesis incorporates it prior to purification and formulation, directly determining the active herbicidal molecule’s structure, performance profile, and regulatory compliance. Industry compliance standards
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2. Pharmaceutical API Synthesis: Nonsteroidal Anti-Inflammatory Drugs (NSAIDs)The fine chemical and API sector integrates 3-Methoxyphenoxyacetic Acid in multi-step synthesis of advanced carboxylic acid analogues for anti-inflammatory drugs. Chemists use this building block to introduce particular oxygenation patterns into aromatic cores, enabling further substitution reactions towards target APIs under documented GMP conditions. The compound is dosed with strict control at the aromatic substitution stage, usually under mild base catalysis, enabling consistent product and impurity profiles suitable for regulatory submission. Industry compliance standards
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3. Synthesis of Aromatic Ether Monomers for Performance PolymersHigh-performance resin and plastic manufacturers incorporate 3-Methoxyphenoxyacetic Acid as a precursor in the custom synthesis of ether-linked aromatic monomers. These monomers act as structural fragments for specialty polymers designed for demanding optical, electrical, or chemical resistance specifications, such as liquid crystal polymers and specialty polyesters. The acid is introduced via direct acylation or etherification, allowing accurate tailoring of molecular weight and thermal properties in the subsequent polymerization stage. Industry compliance standards
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4. Chemical Intermediate for Agrochemical Plant Growth RegulatorsManufacturers of advanced plant growth regulators utilize 3-Methoxyphenoxyacetic Acid as a functionalized aromatic acid moiety for downstream synthesis of compounds that modulate cell elongation, rooting, or flowering in horticulture. The compound’s unique profile as a precursor enables targeted modifications in cellular activity. It’s fed into the esterification and amide formation stages, governed by specific crop registration requirements and cost-performance analysis by formulation engineers. Industry compliance standards
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5. Raw Material for Aromatic Compound Derivatization in Specialty Dyes and PigmentsDye and pigment manufacturers employ 3-Methoxyphenoxyacetic Acid to introduce methoxy and phenoxy substitutions into the aromatic backbone of specialty colorants, providing fine-tuned color stability and solubility for technical textile and plastic coloration. The acid is incorporated into coupling reactions and post-condensation derivatization, forming parent structures that improve dye fixation and resistance to fading under industrial laundering or outdoor exposure. Industry compliance standards
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At our reactors, everything begins with the raw material and the molecular know-how gained through decades of production. 3-Methoxyphenoxyacetic acid—recognized by its clear chemical structure and unique properties—has moved from the library of synthetic chemistry to become an active ingredient underpinning a variety of applications. Over the years, we’ve shaped the synthesis route, invested in cleaner reagent handling, and focused on reliable repeatability batch after batch.
From the bench scale to multi-ton orders, customers drive expectations. Researchers tackling new agrochemical formulations look for consistency in purity. Plant operators want manageable volumes and clear supply chain communication. Industrial users value a product that arrives with the tight range of impurities they’ve come to expect. 3-Methoxyphenoxyacetic acid, as produced in our facility, targets these expectations.
We see a lot of interest due to its role as a key intermediate in fine chemical synthesis, especially where customization matters. Our team often partners with R&D departments seeking to push performance in plant growth regulators or fine-tuning specialty monomers. They openly ask: what makes our product better than options available from other sources? Our answer comes from hands-on records, not a generic brochure.
This compound—sometimes called 2-(3-methoxyphenoxy)acetic acid—typically flows from our reactors as a white to off-white crystalline powder. We run HPLC-verified purity above 99%. That alone doesn’t drive results unless you can keep residual solvents, trace aniline derivatives, and unconverted precursors well below customer-specific limits. Each lot ships out with analytical reports tailored to real customer requirements rather than a one-size-fits-all number.
We don’t chase the lowest cost at the expense of process reliability, nor do we understate the complexity in keeping color, flowability, and lot-to-lot consistency within such a narrow band. As regulations get tighter in end-use markets, process teams keep working on solvent recovery and closed-loop waste reduction. This means audits, documentation, and in-person visits are always welcome—we’re used to the scrutiny.
Our chemists prefer to talk concrete process details. From experience, phenol etherification steps along with controlled oxidation and careful neutralization define both the cost structure and impurity profile. A small shift in acid concentration, a little extra reaction time, or a variation in cooling can throw off crystallization. It takes lab and plant cooperation to hold every variable within limits, especially if tonnage runs threaten to drift from R&D samples.
It’s easy to order a kilo and see a Certificate of Analysis that fits expectations, but supporting full-scale production can uncover handling difficulties. Dust generation, electrostatic cling, and inadvertently introducing moisture present headaches for warehouse crews. To counter this, packaging gets selected for each shipment’s travel distance and the humidity at destination. Few buyers ask those questions at the start, but our logistics manager keeps records showing how a slightly different liner has saved tens of thousands by reducing wastage.
We make 3-Methoxyphenoxyacetic acid for users who need more than a label. Most inquiries come from intermediates producers or those in agrichemical research. Their interest goes beyond purity: they ask about reactivity under specific conditions, compatibility with proprietary solvents, or whether our process eliminates cross-contamination from prior campaigns. Some customers reformulate on the fly; they need flexibility in the supply chain and assurance any deviation will be flagged early. We have seen the compound become a backbone for synthesizing plant growth promoters, though the end products disappear into formulation blends and rarely appear on finished labels.
In polymers, it sometimes acts as a monomer for specialty resins. While these applications don’t make front-page news, the value hides in thermal stability, low by-product formation, and keeping color below a certain haziness that could affect optical end uses. Other buyers, focused on regulated environments such as pharmaceuticals or advanced materials, lean on our traceability and impurity control. Our technical service team tracks feedback: ease of dissolution, shelf-life in local conditions, and how it reacts when shifting solvents—all fine points that separate our output from bulk-packaged, stockroom-grade alternative sources.
Supply is crowded with products labeled as 3-Methoxyphenoxyacetic acid, though not every supplier cuts the same corners or invests the same resources. Some traders repackage or resell material with uncertain provenance. Over the years, we’ve seen a range of issues: yellowing from improper storage, surging chloride levels from hurried neutralizations, and poorly filtered lots that gum up automated feeders. Because synthesis steps and purification plans differ, analytical results from vendors don’t always match reality under working conditions.
Clients who switch to our output often do so after bad experiences: inconsistent purity means product failures; unreliable batch sizes mean patchy supply. Our granular control over batch production, repeated investment in analytical support, and willingness to provide extra QC documentation set a higher bar. Buyers who have visited our plant understand why: traceable raw materials, priority given to in-process controls, and direct access to technical staff for root cause investigations.
Other products sometimes share a common backbone molecule but include different substituents. For researchers, these minor molecular changes can profoundly impact downstream reactivity or hinder the synthesis pathway. Clients with international regulatory exposure care deeply about the precise source and process for each batch—requirements that off-the-shelf material rarely meets.
As end-use regulation tightens globally, sourcing teams ask more about compliance: Is the entire supply chain traceable back to verifiable starting materials? Can each shipment provide the batch-level impurity details needed for registration? Our early investment in full product traceability—starting from the bulk chemicals, moving through synthesis, purification, and delivery—has built resilience into our supply offering.
Older supply chains, built on importing drums from unknown sources, now struggle under new rules. We field requests from buyers who can’t clear customs or who have faced product rejections. Meeting these demands means actually knowing the plant, the team, and the paperwork for each batch. Our technical staff meet regularly with regulatory experts to keep product files ahead of shifting requirements.
Chemistry isn’t just about yields or costs. Equipment failures, off-spec batches, and shipping delays all disrupt downstream users. Plant reliability grows out of the details: scheduled maintenance, skilled operators, and investment in automation for temperature and pH control. In our lines, holding temperature profiles and mixing speeds tight has translated into clean crystallization and lower lot rejection rates.
In the warehouse and during shipping, experience counts. Bulk powders demand careful packing, dry atmosphere, and no shortcuts. It’s easier to manage everything from the inside, so we rarely rely on resellers or anonymous third parties. Whenever possible, we prefer to deliver factory direct, improving transparency and reducing wait times.
Those who expect chemical manufacturing to follow the script of laboratory procedures quickly learn the differences at tonnage scale. Ventilation, personal protective equipment, and mechanical aids matter more as volume grows. We build our handling systems around dust containment and ergonomic transfer—experience has taught us that a small investment upfront avoids chronic cleanup and reduces shift fatigue. Knowing the main hazards, we’ve worked with local fire code officials and supply detailed site-specific handling training to customers with their own bulk handling operations.
Down the line, issues like batch-tracking, recall readiness, or environmental spill response surface as priorities—even for clients with long experience. Our compliance team updates internal training and external guidance as regulations change, enabling risk reduction both inside our facility and at customer sites downstream.
Markets evolve, so we welcome honest feedback—from R&D labs running micro-scale tests, to operations managers worried about process downtime. Years ago, a technical lead at a client plant flagged inconsistencies in dissolution rate. What followed was an intensive joint investigation: samples pulled at multiple points, new analytical test development, and process retuning until the deviations fell within the acceptable window. Since then, we have invited regular audits, hosted supplier quality meetings, and opened our records for review.
Raw material market shifts, new regulatory hurdles, or a customer’s new formulation can all force a re-think on production priorities. We have set up small-lot custom batch production lines and variable finishing steps to handle requests outside the standard run. Our R&D chemists know how to scale up pilot successes without compromising bulk output either on purity or safety.
Pressure is rising for all manufacturers to lower waste, trim energy consumption, and prove real environmental progress. We started by closing solvent recovery loops and reprocessing reactor washes. Each kilogram of 3-Methoxyphenoxyacetic acid now generates less waste and pulls more of its energy needs from renewables than just a few years back.
Onsite wastewater treatment gets just as much attention as reactor thermal efficiency. A sustainable output appeals to clients who must report downstream environmental impact, especially in regulated markets. These aren’t side topics—they’ve influenced our investment decisions and guided process upgrades. By sharing actual energy and water data with clients, we foster a level of partnership rarely found from trading intermediaries.
Customers don’t work in isolation, and neither do we. Through industry groups, supplier quality consortia, and direct project partnerships, we learn the recurring frustrations of professionals who rely on 3-Methoxyphenoxyacetic acid. Switching suppliers due to inconsistent quality, variable shipping times, or ambiguous documentation wastes time and threatens business. Our plant managers and technical liaisons stay on calls and attend working groups—not just to sell, but also to address persistent supply pain points.
We know that a kilo sample that impresses in January won’t matter if the next 10,000 kilos in June land out of spec. Customers who return to us say the difference isn’t the label or even the price. It’s the direct line to our team, the willingness to troubleshoot, and the confidence their feedback will inform process changes. Each sector—agrochemistry, specialty polymers, life sciences—brings unique requirements, and our role as manufacturer means the ability to act, not just promise.
Long-term relationships are built around transparency. Each shipment leaves the plant with not only a full set of analytical data but also shipment traceability records and the ability for customers to engage directly with the processing team. Technical support never runs on auto-response—we staff it with real chemists and production managers who review every inquiry alongside the original batch records.
On occasion, unexpected issues surface—freight delays, customs confusion, or adverse weather. Our logistics team moves quickly, using established relationships with carriers, customs brokers, and emergency response partners. For clients, this reduces production line downtime and eliminates hidden costs from uncertainties further up the supply chain.
We have adopted open-book quality investigations, inviting customer teams to view process logs and analytical results. Sometimes, customers propose modifications to our process, helping boost both performance and confidence. Being a direct manufacturer means having the authority and flexibility to implement these improvements quickly.
Choosing supply direct from a manufacturer carries less risk than relying on traders or anonymous third parties. Our process controls, batch documentation, and ongoing improvement cycle remove uncertainty that can come with material from lesser-known routes. For critical uses—the ones where regulatory submissions, process validation, and recurring audits matter—full traceability back to factory and raw inputs makes decisions easier downstream.
We see regular returns from customers frustrated by hidden variability and poor communication from non-manufacturing sources. In new applications—emerging markets, novel synthesis routes, or complex formulation environments—having the ability to discuss requirements directly with producers results in faster problem-solving and higher rates of project success.
As long as industries rely on advanced intermediates, demand for reliable sources will remain strong. 3-Methoxyphenoxyacetic acid, as produced here, reflects not just a molecule but years of cumulative expertise, careful investment, and adaptation to shifting customer needs. While global trends push supply chains to be more transparent and sustainable, our contribution lies in bridging chemistry and service. Our door is open for discussion—with raw data, process details, and actual application experience ready to back it up.