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HS Code |
688419 |
| Cas Number | 547-64-8 |
| Molecular Formula | C4H8O3 |
| Molecular Weight | 104.10 g/mol |
| Iupac Name | methyl 2-hydroxypropanoate |
| Appearance | Colorless liquid |
| Odor | Mild, fruity |
| Boiling Point | 145-146 °C |
| Melting Point | -26 °C |
| Density | 1.09 g/cm3 at 25 °C |
| Solubility In Water | Miscible |
| Refractive Index | 1.410 at 20 °C |
| Flash Point | 54 °C (closed cup) |
As an accredited Methyl Lactate factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Methyl Lactate is packaged in a 500 mL amber glass bottle with a secure screw cap; chemical label with hazard information included. |
| Shipping | Methyl Lactate is shipped in tightly sealed containers, typically drums or bottles, to prevent leaks and contamination. It should be stored in a cool, well-ventilated area, away from heat and ignition sources. Proper labeling and documentation are required, and transportation must comply with regulations for flammable or combustible liquids, if applicable. |
| Storage | Methyl lactate should be stored in a cool, well-ventilated area away from direct sunlight, heat sources, and incompatible materials such as oxidizers. Keep the container tightly closed and properly labeled. Store at a temperature below 30°C, in a dry location. Use containers made of materials compatible with methyl lactate to avoid leakage or chemical degradation. |
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Purity 99%: Methyl Lactate with purity 99% is used in pharmaceutical synthesis, where it ensures high reaction efficiency and minimized byproduct formation. Boiling Point 145°C: Methyl Lactate with a boiling point of 145°C is applied in solvent systems for cellulose coatings, where controlled evaporation rates enhance film uniformity. Viscosity Grade Low: Methyl Lactate of low viscosity grade is used in surface cleaning formulations, where it enables faster penetration and effective residue removal. Molecular Weight 104.1 g/mol: Methyl Lactate with molecular weight 104.1 g/mol is used in biodegradable polymer production, where it facilitates polymer chain integration and consistent mechanical properties. Water Content <0.2%: Methyl Lactate with water content less than 0.2% is utilized in agrochemical formulations, where it prevents hydrolysis and maintains product stability. Stability Temperature 30°C: Methyl Lactate with stability up to 30°C is used as an extraction solvent in flavor industries, where it preserves sensory integrity during processing. Melting Point -23°C: Methyl Lactate with a melting point of -23°C is implemented in lubricants for low-temperature applications, where it ensures fluidity and operational performance. Flash Point 50°C: Methyl Lactate with a flash point of 50°C is employed in paint stripper formulations, where it provides safe handling and effective stripping action. Refractive Index 1.413: Methyl Lactate with refractive index 1.413 is applied in specialty optical cleaners, where it guarantees residue-free transparency and surface brightness. Particle Size <10 µm: Methyl Lactate with particle size less than 10 µm is utilized in cosmetic emulsions, where it achieves smooth texture and enhanced skin absorption. |
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Methyl lactate is making waves across industries for all the right reasons. With any mention of eco-friendly working fluids or greener alternatives to traditional petrochemical solvents, my mind turns to methyl lactate. Its chemical structure—derived from renewable plant sources—shows that industries can shift away from harsher chemicals without missing a beat in performance. Every time I see it in use, whether in cleaning products, coatings, or resin formulations, I appreciate the practical benefits that come from years of real-world demand for responsible sourcing and safer operating conditions.
Many industries have relied on solvents with scary labels and risks, but changing regulations and rising safety concerns have changed the game. Methyl lactate brings something different: it’s less volatile, much less hazardous to handle, and still gets even stubborn grease and inks off industrial machines. The low toxicity level means less hassle with storage and usage guidelines. For workers and managers tired of navigating the strictest personal protective equipment and air-purification setups just to keep people safe, methyl lactate offers real peace of mind.
When talking about methyl lactate, the product in standard use comes with high purity. Most suppliers make sure purity sits above 98%, so there’s little surprise once the product is in-hand. This quality translates to fewer residues, consistent performance, and a pleasant, faint odor—not the harsh fumes from solvents I’ve used in older workshops. Its boiling point sits high enough to reduce fire hazards but low enough for efficient evaporation and easy recovery in closed systems.
The liquid appearance is clear and colorless; anything else from a reputable supplier signals an issue right away. Viscosity remains low, helping it penetrate surfaces and rinse away cleanly. It’s fully miscible with most alcohols and esters, so blending for customized applications happens without odd interactions or unexpected precipitates. Transport usually requires containers that stay tight against humidity, since methyl lactate absorbs some water, but standard drum-handling practices are enough.
In day-to-day operations, temperature swings rarely give trouble, but it’s wise to keep containers closed and away from extreme heat, since the product retains a moderate flash point. Unlike some solvents with a habit of eating through seals and gaskets, methyl lactate tends to respect equipment, so frequent maintenance calls drop off and pump systems last longer.
Walk through any progressive manufacturing facility, and you’ll see methyl lactate in surprising places. My first experience came during a pilot phase in a printing plant, where teams swapped out traditional glycol ethers for methyl lactate-based cleaners. Results showed up quickly: less concern over disposal, fewer headaches for workers, and most important, a better record on environmental audits.
Cleaning and degreasing crews like its ability to tackle paint residues and stubborn polymers without etching sensitive surfaces. Near-zero toxicity and no persistent fragrances make this product a favorite in electronics assembly lines, where any leftover film risks product failures. In coatings, methyl lactate’s mild solvency power brings out rich pigment dispersions and smooth finishes while letting manufacturers check off more boxes on sustainability reports.
Cosmetic and personal care labs are another big fan base. Methyl lactate supports the formulation of lotions and creams, dissolving actives effectively without overpowering scents or adding irritants. I’ve watched teams move towards this ingredient to meet clean beauty initiatives and draw consumers looking for plant-based, gentle alternatives. Even the packaging teams appreciate it, since shipping restrictions relax thanks to the safer classification.
In specialty chemical labs, methyl lactate operates as a useful intermediate, letting chemists assemble complex molecules around an accessible and responsive starting material. Its compatibility with enzymatic and mild catalytic reactions gives process engineers a real platform for sustainable new materials.
People often ask if methyl lactate lives up to the job compared to established solvents. I’ve used acetone, ethyl acetate, MEK, and their cousins across decades in surface coatings and cleaning roles. Each brings strengths and headaches. Acetone evaporates fast and leaves little residue, but its odor fills rooms and dries out skin on contact. MEK strips paint like nothing else, but any spill means a call to the hazardous response team. Ethyl acetate brings a sweet scent but makes for an aggressive regulatory burden.
Methyl lactate doesn’t try to muscle through with raw solvency power. Instead, it removes oily, polar, and some resinous materials gently, so operators spend less on gloves and face masks. The biggest difference comes in its environmental and toxicity profile. Derived from lactic acid—found in foods and living systems—this ester keeps a low profile on hazard rankings. Spills draw less drama, disposal aligns with more compostable waste programs, and the impact on indoor air quality is minimal.
Many teams find they can clean, strip, or dissolve with methyl lactate in the same machines and tanks already in use. Sometimes, blending with a minor percentage of more aggressive agents is enough for challenging jobs. The payoff is a dramatic cut in dangerous emissions, insurance costs, and time lost to regulatory paperwork. From my own experience, transitions to greener solvents often start with skepticism from old hands on the floor, but most recognize the difference at the end of a season spent with fewer health complaints.
I’ve watched environmental regulations tighten year after year. Solvents once considered business as usual now trigger extra permits and scare away commercial partners. Sourcing requirements, landfill restrictions, toxicity controls—each new rule cuts into margins or delays launches, especially in industries that haven’t retooled for green chemistry. Methyl lactate offers relief by providing a path forward that’s not simply compliant, but truly sustainable.
Because methyl lactate comes from fermentation of renewable sugars, grain, or corn starch, the carbon footprint drops from the very first production step. Unlike petroleum-derived options, each gallon traces back to fields, not fossil wells. Even waste management gets easier: breakdown by soil microbes or water treatment plants happens with little effort, so persistent environmental contamination risks drop to a minimum.
Waste streams containing methyl lactate show much lower aquatic toxicity, and the breakdown products—mostly carbon dioxide and water—do not accumulate in food webs. From a practical standpoint, companies making the switch have an easier time answering the calls from customers and regulators for evidence of cradle-to-grave sustainability. This is not just a branding move. It lets every player in the supply chain verify that their choices respect both local and global priorities.
Working with chemicals never comes without risk, but some risks carry more weight. Chlorinated solvents, for example, hang heavy in the air and seep into groundwater, earning black marks from health agencies. Old timers in the field remember frequent skin rashes and coughs—the daily grind of “just part of the job.” Methyl lactate changes that landscape. Reports from job sites show fewer complaints and better standard air readings, reshaping work environments for the better.
Regulators recognize the difference. Across the European Union, methyl lactate features on approved lists for use in manufacturing and processing environments focusing on health and safety. In North America, green chemistry programs encourage its adoption through lower insurance premiums and simplified compliance steps.
Because these frameworks take into account both short- and long-term exposure, rolling out methyl lactate meets both bottom-line necessities and real personal safety expectations. Companies aiming for ISO 14001 or similar certifications find easier audits, and worker retention improves once the daily anxieties fade.
Transitioning to a new raw material rarely happens overnight, especially in long-standing industries where every penny counts. Methyl lactate now enters the mainstream at a price point lower than many other biobased solvents and not far removed from standard petrochemical fare. Early on, I saw cost analysis teams struggling with premium prices for plant-based options. These days, as more producers enter the market and agricultural supply chains stabilize, methyl lactate’s economics look solid.
Switching often begins with pilot trials. On the shop floor, operators swap out one cleaner or additive and watch for changes in performance, product yield, or machine wear. Regular logbooks show performance on par with past solvents, and long-term savings creep up through efficiency gains, fewer lost-time incidents, and lower hazardous waste bills.
A key point: methyl lactate’s compatibility with conventional storage, piping, and dispensing equipment makes for low-friction rollouts. Training boils down to updated safety data sheets, not new engineering controls. Decision-makers see short payback periods, and supply partners appreciate shipments that meet increasingly tight standards for carbon reduction and lifecycle impact assessments.
No product fixes every problem. While methyl lactate brings impressive benefits to many sectors, there are cases where its solvency power meets limits. For certain adhesives or heavy synthetic resins, alternative blends or even petrochemical standbys still outperform. In these uses, some manufacturers blend methyl lactate with stronger agents, keeping the green quota high while still reaching full performance specs.
Water absorption presents another operational point to watch. In humid environments, open containers draw in moisture, which can slightly shift solvency behavior and handling feel. Keeping drum lids tight generally solves this, but process managers need to check inventories periodically for water uptake. Because methyl lactate biodegrades so easily, shelf life may fall short compared to more inert, synthetic solvents—a manageable limit, but worth tracking in environments where inventory turns slow down.
Odor, while milder than most, may appear in concentrated operations. Most facilities never notice it, but ventilating bench-top and packaging areas avoids surprises. In quick-evaporating roles, methyl lactate’s slightly higher boiling point can mean longer drying times on surfaces, a trade-off against its lower fire risk. Each shift to methyl lactate calls for a thorough process check to ensure the gains in safety, sustainability, and cost translate into real on-the-ground improvements.
In the last few years, I’ve watched growing momentum around clean solvents. Conferences feature entire tracks on biobased chemistry. Regulatory authorities flag rankings and publish lists that favor substances with documented safety for both people and planet. Methyl lactate’s reputation only improves under this lens. Feedback from pilot programs and production-scale rollouts supports rapid industry adoption, especially as sustainability pressures rise.
Research labs develop new derivatives and blends daily, extending application fields from pharmaceuticals to advanced composites. Market analysis points to rising demand for low-impact, versatile solvents; methyl lactate finds itself among the leaders. End users, especially those in consumer-facing or export-oriented businesses, see reputational wins from published ingredient lists that avoid common “red flag” chemicals. Workers appreciate the shift, knowing exposure means less worry about long-term effects.
Looking ahead, a continued drop in agricultural by-product prices and advances in fermentation yield will only strengthen methyl lactate’s position. Supply chains invest heavily in traceability, batch tracking, and documentation, all of which reinforce confidence. Partners down the line, from distributors to end customers, see this transparency as part of the future fabric of responsible commerce.
From experience, any ingredient succeeds only if suppliers, workers, and buyers all buy in. The best programs for adopting methyl lactate put clear communication at the center. Managers start by explaining not just the how, but the why: improved air quality, less freight classified as hazardous, easier waste disposal, and a real record of accidents avoided.
Training sticks better when tied to hands-on demonstrations, showing how methyl lactate substitutes step for step and rinse for rinse. Workers take pride in healthier workspaces. Engineers appreciate longer equipment life, and finance teams see the difference once insurance premiums stabilize.
For the more technical crowd, peer-reviewed data provides added assurance. Whether in cleaning, coatings, or personal care, the growing library of third-party studies on methyl lactate’s performance and safety builds trust. In my own consulting work, nothing convinces faster than side-by-side comparisons showing how process efficiency holds up, while the red flags on toxicology drop off.
Some companies invite supply chain auditors or certification bodies to verify sourcing and traceability, smoothing the path for label claims or quality marks. The most successful early adopters treat this as a team effort, gathering feedback from production, logistics, safety, and customer-facing roles. Tweaks based on real-world feedback keep everyone invested, and gradual ramp-ups leave less room for setbacks or surprise costs.
Every solvent comes with its own baggage, but methyl lactate challenges the old model—showing industries they can move towards sustainability without giving up performance. The data, combined with on-the-ground stories from line operators and health officers, makes for a compelling case. In an era of tighter regulations, louder calls for green chemistry, and sharper market expectations, methyl lactate checks boxes on all sides.
Its story is not just one of molecules and material safety data sheets, but a practical shift that lets companies put worker safety, cost, and environmental stewardship on common ground. As more sectors catch on, those early days of resistance now seem a distant memory. The next generation will likely expect solvents to follow the methyl lactate model: safer, effective, and more responsible, right from the first drop.