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HS Code |
853865 |
| Inci Name | Sodium Lauroyl Glutamate |
| Cas Number | 29923-31-7 |
| Appearance | White to off-white powder or flake |
| Odor | Mild, characteristic |
| Solubility In Water | Soluble |
| Ph Range 1 Solution | 5.0 - 6.0 |
| Primary Function | Surfactant, cleansing agent |
| Origin | Derived from coconut oil and glutamic acid |
| Biodegradability | Biodegradable |
| Irritation Potential | Low |
| Recommended Usage Level | 1 - 10% |
| Hlb Value | Approx. 10 |
| Preservative Status | Self-preserving at typical use levels |
| Vegan Status | Vegan-friendly |
| Applications | Facial cleansers, shampoos, body washes |
As an accredited Sodium Lauroyl Glutamate factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Sodium Lauroyl Glutamate is packaged in a 25 kg white woven bag, lined with plastic, labeled with product details and safety warnings. |
| Shipping | Sodium Lauroyl Glutamate is shipped in tightly sealed, moisture-proof containers such as fiber drums or plastic bags, typically in 25 kg packaging. The chemical should be stored in a cool, dry location, protected from sunlight and incompatible substances. Proper labeling is ensured for safe handling and compliance with transportation regulations. |
| Storage | Sodium Lauroyl Glutamate should be stored in a cool, dry, and well-ventilated area, away from direct sunlight and sources of heat or ignition. Keep the container tightly closed to prevent moisture absorption and contamination. Store separately from strong oxidizing agents. Ensure proper labeling and secure positioning to avoid accidental spills or leaks. Always follow relevant safety guidelines for chemical storage. |
Applications of Sodium Lauroyl Glutamate in Industrial ManufacturingSodium Lauroyl Glutamate, an amino acid-based anionic surfactant, finds established usage across several highly regulated downstream sectors due to its mildness, biodegradability, and compatibility with sensitive components. Below, we detail real industrial applications backed by compliance standards, formulation ratios, integration into production processes, and end product examples. 1. Personal Care Cleanser Manufacturing (Facial Cleansers, Shampoos)Manufacturers deploy this surfactant in skin and hair cleansing formulations requiring high mildness for frequent use. It supports sulfate-free product development and enables clear, low-irritancy, and stable formulations, especially valued by brands targeting sensitive skin markets and premium haircare categories. Production QA measures focus on grades free from 1,4-dioxane and other trace contaminants, as demanded by global retailers and health authorities. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
2. Oral Care Toothpaste Base ProductionIn toothpaste formulation, downstream plants select this ingredient to replace SLS or SLES, especially in toothpastes marketed for low-foaming or non-irritating claims. It allows stable paste viscosity at neutral pH and remains compatible with hydroxyapatite, fluoride, and sensitivity-reducing agents. In QC, absence of harsh residues and compliance with oral mucosa safety drive procurement specification. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
3. Mild Laundry Detergent & Fabric Care FormulationFormulators for liquid laundry and specialty fabric care apply this surfactant to craft non-irritant detergents suitable for baby clothes, pet fabrics, and allergen-free lines. Its performance holds in both hard and soft water and supports enzyme compatibility in enzyme-based detergents. Testing focuses on sustained foam profile and rapid rinsing even in low water systems. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
4. Mild Dishwashing Liquid & Hard Surface Cleaner FormulationIndustrial plants use this ingredient in hand dishwashing liquids and surface cleaners that target users with sensitive skin or allergies. It boosts grease removal while controlling skin irritation potential, and supports clear, low-viscosity formulas without masking fragrances. Formulations must pass low-ecotoxicity discharge benchmarks in both Europe and North America. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
5. High-Purity Cosmetic Foam Production (Shaving and Facial Foam)Downstream foam manufacturing lines rely on this amino acid surfactant when formulating quick-foaming, non-irritating shaving and facial foam products. Its compatibility with high water content and air-based foam reactors grants high performance in aerosol and pump applications. Microbial and allergen testing must conform to stringent standards demanded by multinational personal care brands. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
6. Premium Bar Soap and Syndet ManufacturingDetergent and toiletry manufacturers substitute sodium lauroyl glutamate in premium bar and syndet products to achieve mildness targets, especially for high-transparency bars or those marketed as “dermatologist-tested”. It resists soap scum formation even with hard water and maintains bar cohesiveness on prolonged wetting, reducing mushiness. QA teams monitor residue and heavy metal levels batchwise. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
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From the hum and clatter of our reactors, new ideas often emerge alongside each batch. Sodium Lauroyl Glutamate isn’t just another commodity for us. Decades of hands-on experience in the field taught us that product quality lives in the details, from raw material sourcing to the steps of purification. When we talk about this amino acid–based surfactant, we draw on years of refining processes, scaling up under customer pressure, and making sure the material coming out of our plant matches what goes onto a customer's production line.
Plenty of surfactants offer cleansing ability. Fewer do it while respecting the integrity of skin and hair. Sodium Lauroyl Glutamate brings together two functionalities—mildness and foaming power—by blending nature-derived glutamic acid and fatty acids from coconut or palm sources. In day-to-day manufacturing, the model we produce targets a content of at least 95% active matter for our powder, with carefully controlled sodium chloride and moisture levels. We’ve learned that even minor shifts can clog a production pump, jam a spray-dried line, or throw off viscosity in your finished product.
Customers who formulate facial cleansers and shampoos rely on consistent particle size and dispersibility. We make the product as fine, dust-free granules or as a micro-flake depending on what the process downstream demands: pneumatic feed for one, manual scooping into mixers for another. Each batch passes physical inspections where we watch for everything from bulk density to color drift—the small things that seem trivial until bottlenecks snarl up entire days in a plant.
Amino acid surfactants like Sodium Lauroyl Glutamate landed on the market because formulators faced a common problem. Traditional sulfate-type surfactants brought reliable foaming and detergency, yet persistent irritation and environmental persistence forced the industry’s hand. Our shift to amino acid–based surfactants started as an experiment. Now, it shapes growing slices of personal care and household products.
We have partnered with formulators looking for a balance of cleaning capacity and proven mildness. During repeated skin patch testing on the finished ingredient, these surfactants consistently registered lower irritancy than sodium lauryl sulfate or even some sugar-based cleaners. The molecule’s design affords both anionic cleaning action and quick rinse-off—important for applications ranging from baby wash to sensitive scalp treatments.
Unlike traditional soap, Sodium Lauroyl Glutamate resists the precipitation that comes from hard water. This small difference saves line operators from untimely scaling in pipes or awkward residues in the customer’s sink. We routinely get questions about compatibility with other ingredients—conditioning agents, natural oils, thickeners. Over the years, our production, R&D, and tech support teams have collected real-world examples of how this surfactant pairs well with a surprisingly wide range of actives, while many other mild surfactants falter in the presence of cationic and amphoteric co-ingredients.
It helps to look at how Sodium Lauroyl Glutamate behaves compared to other surfactants on the market. Sodium lauryl sulfate (SLS) and sodium laureth sulfate (SLES) set benchmarks for performance, but their history of irritation looms large. Where those two can feel harsh and leave some users with redness or dryness, Sodium Lauroyl Glutamate has served formulators hunting for gentler, biodegradable substitutes. In our technical support, many requests start with, “Can we cut back SLS and still keep the lather?” Our answer, which comes from process trials and not just marketing slides, has been yes—when you work out careful blends using amino acid surfactants.
Sodium cocoyl isethionate offers a similar reputation for mildness, but our product gives you cost control and a steady supply without the processing difficulties that sometimes show up in isethionate systems. Some production lines that tried to switch found they needed either more specialized mixing equipment or had to resolve compatibility gaps with other commonly used ingredients. Sodium Lauroyl Glutamate integrates smoothly into both cold-process and hot-process applications without major reformulation stress.
Every year we see more formulators requesting Sodium Lauroyl Glutamate for skin cleansers and haircare that play up the “free from sulfates and harsh irritants” message. Under the microscope, the molecule’s structure lends itself to mildness. That’s what drove its popularity in high-end facial foam and low-irritant body washes. We’ve handled large-volume orders from clients in Japan and Korea, where regulatory standards and consumer preferences often drive innovation before Western markets pick up the trend. More recently, North America and Europe are embracing the shift in surfactant strategy, especially as Green Chemistry guidelines take a front seat.
We've seen customers build complete sulfate-free shampoos using our Sodium Lauroyl Glutamate as a primary surfactant, mixing in cocamidopropyl betaine and glucoside products for a customized foam profile. In sensitive skin cleansers, this ingredient forms the base for rinse-off creams that avoid stripping the lipid barrier. It's been used in bar soap alternatives that require high active content at low moisture, where process stability and shelf life are just as critical as user experience.
From a manufacturer’s viewpoint, high batch-to-batch consistency and low allergen content in the raw materials take priority. Regular audits and full-traceability allow us to maintain standards that survive third-party testing. Over the last ten years, we’ve faced plenty of production runs where cutting corners would have made a difference to our bottom line—but experience tells a different story. Finished goods rarely sell twice if users end up with dryness, irritation, or other complaints traceable to inconsistent quality in the surfactant.
Across every sodium lauroyl glutamate batch, we build consistency through careful choice of raw glutamic acid, lauric acid source, neutralization and drying method. Our core model, with a 95%+ active matter level, tends to work as a white to off-white powder or granule. Moisture remains tightly managed, typically between 5% and 7%, as excess water compromises shelf life in high-performance applications, especially in pressed facial cleansing bars and low-water cream cleansers.
We learned firsthand how physical form impacts performance in automated manufacturing lines. Granular and micro-flaked models resist caking and flow easily into blending hoppers. They disperse well, minimize dust, and keep line operators happy. Lower-grade alternatives may save pennies, but we’ve seen the real costs play out in clogged feeding systems, batch residue, or erratic performance during scale-up.
pH matters, both for end-use mildness and as a driver of stability in the intermediate stages. Our product maintains a pH range from 5.0 to 6.5 at a 1% solution, matching the skin’s natural acid mantle and helping avoid barrier disruption. Surfactants drifting out of this range create extra work for formulators and could open the door to patch-testing failures downstream.
Heavy metal content remains a pain point across the sector. We source lauric acid and glutamic acid with tight impurity specs and conduct regular ICP-MS checks alongside classical wet chemistry. It doesn't matter how minor the contaminants—tiny amounts of lead or arsenic cause real concern, especially for export to regulated markets such as the EU or Japan. Our finished batches show heavy metal content below the strictest regulatory thresholds.
Experienced manufacturers know most launches rely on more than just one raw ingredient. But a surfactant defines the user’s initial impression—on contact and on rinse-off. Sodium Lauroyl Glutamate sits at a crossroad of mildness and cleaning power. Producers targeting mass-market personal care want a competitive foam profile without risking the irritation baggage of sulfate-based alternatives. Here, our ingredient lets you mediate between marketing claims and performance realities. Years of bench trials inside our own application lab show that it produces a dense, creamy foam, readily biodegradable, with low residue on glass and plastic surfaces.
Some formulators push for “natural origin” content above 90%. Our feedstocks, stemming from renewable agriculture, help push that percentage. But we never push claims without documentation. Each shipment heads out with batch certification and origin papers backed by physical audits. Clients facing retail audits or listing under leading clean-label standards—like Ecocert or COSMOS—often approach us not just for the ingredient, but for auditable process transparency.
The reality of global manufacturing comes into play when supply tightens. Price swings in coconut and palm derivatives affect fatty acid sourcing, and we’ve established alternate pathways to ensure a stable supply. Our procurement team is in constant contact with certified plantations, and we review suppliers annually for labor and environmental compliance. If sustainability pushes become regulatory rather than voluntary, traceability and third-party certifications count more than ever.
Pushes towards plant-based, biodegradable surfactants bring tough choices to the table: cleaner production, greener chemistry, and minimizing carbon footprint. The energy bill for drying and neutralizing glutamic acid can spike if left unchecked. For energy efficiency, we’ve swapped aging dryers with better heat-recovery models, cut waste in the neutralization step by tuning reaction conditions, and pushed toward on-site water recycling to cut freshwater use by half in the past five years.
Scaling up from lab to plant rarely follows a straight path. Years back, we found out—the hard way—that minor impurities in feed-grade glutamic acid risked off-coloring and foaming drops at large scale. We spent months collaborating with our suppliers to get higher purities and then installed new filtration steps before drying. It ate into profits in the short run, but resolved persistent complaints about off-smell and inconsistent performance.
Moisture drift presents another familiar headache. During high humidity months, moisture in powder can creep up, leading to flow problems and caking. Long-term, we engineered improvements: new dehumidification units and storage silos where temperature and humidity are scrupulously monitored. Line operators now test every big bag for moisture on unloading. Cut a corner here, and downstream customers lose hours chopping up lumps or fighting blockages in feeders.
Sometimes, a client expects the ingredient to solve every surfactant challenge by itself. It doesn’t—no single surfactant delivers perfect foam, mildness, thickening, and cost-efficiency for every use. Years working with real-world clients hammered that point home. We often sit down with formulators, blending sodium lauroyl glutamate alongside betaines or sugar-based surfactants to reach the desired profile. True answers come from trial runs, not theoretical calculations or spec sheets.
We’ve had requests for non-soy, non-gluten, or allergen-controlled feedstocks. Here, ingredient traceability wins out. Through supplier verification and selective purchasing, we ensure our finished product meets hypoallergenic demand. Finished skin care products—especially exported to the Asia-Pacific region—rely on this kind of rigorous chain-of-custody oversight.
End users today read labels and demand safety, performance, and ethics in one package. Sodium Lauroyl Glutamate bridges conventional and clean-label products. Feedback from personal care brands and contract manufacturers reinforce what we see on our own shop floor: customers care about performance and story, not just buzzwords. Brands aren’t shy about testing samples batch to batch, and large retail groups conduct unannounced audits. Whether formulating solid facial cleansers, creamy sulfate-free body washes, or specialty baby shampoos, brands want reliability in every drum and sack.
Regulatory compliance never stays still—new allergen labeling laws, microbead bans, and cosmetic bans on select chemistry create an uneven playing field. We have found it critical to keep detailed technical documentation and update internal Standard Operating Procedures line by line. These records keep products moving across borders and quickly answer retailer or regulatory challenges.
Our technical support spends hours troubleshooting mix issues, phase separation, or foaming drift during customer trials. Knowledge passes from plant to client inbox via lived experience—what works, what doesn’t, and how to recover a failed batch—rather than just sending a generic spec sheet. Sometimes, adding sodium lauroyl glutamate to an established formula calls for a retune of pH, thickener, or fragrance loads. We walk clients through those steps, informed by times we worked through similar transitions ourselves.
We watch the push towards less processed, higher purity, more sustainable surfactants unfold with interest—and a fair share of responsibility. Processing breakthroughs, such as continuous media neutralization or enhanced filtration, now spill over from pharma and food production lines into our surfactant work. We’ve begun to see requests for even finer granulation, for use in automated single-dose dispensers or pressed cleansing bars.
New research highlights the gentle cleansing properties of sodium lauroyl glutamate paired with minimal barrier disruption, traced through reduced TEWL (transepidermal water loss) scores in clinical trials on finished products. Though we don’t run the clinical trials ourselves, our manufacturing teams remain in touch with testing labs to stay ahead on regulatory updates and emerging needs.
Supply security becomes more critical each year, especially as unpredictable weather or geopolitical tensions affect key agricultural exports. Our firm doubles down on logistics—multiple warehouses, redundant supply nodes, bulk shipping options for powder to reduce risk. Sometimes, prompt deliveries depend as much on clever logistics as on what leaves our reactors.
All this experience shapes the final ingredient: a surfactant rooted in amino acid chemistry, tuned for both modern formulating standards and sustainability needs. We keep listening to client pain points and market direction, using feedback not only to avoid repeating old mistakes but to drive further improvements. In a market that refuses to stand still, learning from past runs, critical customer feedback, and hard-won production lessons feels just as important as the latest chemical innovation.