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HS Code |
901031 |
| Inci Name | Potassium Lauroyl Glycinate |
| Chemical Class | Amino acid-based surfactant |
| Appearance | White to off-white powder or flakes |
| Solubility | Highly soluble in water |
| Odor | Mild, characteristic |
| Ph Range | 8.0 - 10.0 (1% aqueous solution) |
| Primary Function | Mild surfactant / cleansing agent |
| Origin | Derived from lauric acid and glycine |
| Common Uses | Facial cleansers, body washes, shampoos |
| Biodegradability | Readily biodegradable |
| Skin Compatibility | Mild, suitable for sensitive skin |
| Foaming Ability | Good foam production |
| Preservation | Usually requires preservatives in formulations |
| Charge Type | Anionic surfactant |
| Molecular Weight | Variable, typically around 293.4 g/mol |
As an accredited Potassium Lauroyl Glycinate factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The Potassium Lauroyl Glycinate is packaged in a 25 kg white HDPE drum with a secure lid and clear labeling. |
| Shipping | Potassium Lauroyl Glycinate is shipped in tightly sealed containers, protected from moisture and direct sunlight. Packages are labeled according to chemical safety regulations and handled as non-hazardous for transport. Standard shipping methods apply, but temperature control and careful handling are recommended to maintain product integrity during transit. |
| Storage | Store Potassium Lauroyl Glycinate in a tightly sealed container, in a cool, dry, and well-ventilated area away from heat sources and direct sunlight. Keep away from moisture and incompatible substances such as strong oxidizers. Ensure containers are properly labeled. Use appropriate personal protective equipment when handling, and avoid dust formation. Store at room temperature to maintain product stability and quality. |
Applications of Potassium Lauroyl Glycinate in Industrial ManufacturingPotassium Lauroyl Glycinate is a mild, amino acid-based anionic surfactant widely implemented in various industrial manufacturing sectors, especially in personal care and cleansing formulations. Below, we outline its actual downstream implementation across several key application scenarios, highlighting compliance requirements, industrial formulation practice, in-process integration points, and the diverse range of end-use products manufactured with this material. 1. Facial Cleanser ManufacturingFacial cleanser formulators utilize this ingredient to deliver low-irritation cleansing action for sensitive-skin applications. Its selection arises from rigorous dermatological considerations and regulatory alignment for direct-to-skin products. The surfactant introduces a dense, creamy foam profile and favorable rinsing properties in transparent and opaque gel systems. Precise addition at the premix phase creates a stable micellar structure that remains effective throughout typical manufacturing shear and thermal stress. Manufactures further adjust dosages depending on desired skin feel and impurity removal-targets, calibrating formulations for final viscosity and clarity before downstream QC release. Industry compliance standards
Typical usage ratio
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2. Syndet Bar ProductionFormulators in the syndet (synthetic detergent) bar industry employ this mild surfactant to provide skin-friendly cleansing properties, distinguished by its amino-acid derived structure and resistance to typical soap dryness. During hot-cast or extrusion processes, it supports bar integrity by interacting with binding agents, producing a finished product with lasting foam and low risk of skin irritation. The ingredient performs reliably even in high-pigment or perfumed variants, retaining lather quality after continuous extrusion, cutting, and cooling operations. Production lines integrate supply at a defined process stage to maintain bar matrix uniformity across extended runs. Industry compliance standards
Typical usage ratio
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3. Liquid Baby Wash & Shampoo FormulationLubricity and hypoallergenic criteria in baby cleansing products drive formulators to adopt this ingredient to ensure tear-free, low-allergenicity results without sacrificing foaming or cleansing power. Regulatory constraints on surfactant types for infants have positioned it as a favored scaffold for base blends, especially when co-formulated with glycinates and mild amphoteric co-surfactants. Used typically in high-purity, fragrance-minimal settings, it demonstrates consistent dispersion behavior and facilitates emulsification steps for uniform final viscosities throughout pilot and full-scale runs. Manufacturers prioritize its use for formulas requiring skin compatibility confirmed by patch and ocular tolerance evaluation. Industry compliance standards
Typical usage ratio
Downstream process integration
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4. Premium Toothpaste ManufacturingThis ingredient serves modern toothpaste formulators needing a sulfate-free and low-irritant alternative to traditional surfactants. Its selection follows from its compatibility with fluoride, calcium compounds, and whitening agents, as well as its favorable foaming under the shearing and blending conditions typical of pneumatic toothpaste lines. The surfactant maintains flavor release and shelf-life, minimizing taste-masking or post-use residue on oral tissues. It enables the manufacture of clear gels or opaque pastes where regulatory sodium lauryl sulfate (SLS) restrictions apply, and its integration supports batch consistency and extrudable viscosity within narrow QC standards. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
5. Shaving Foam and Gel ProductionIn shaving preparation manufacture, formulators adopt Potassium Lauroyl Glycinate for its direct impact on foam texture, lubricity, and skin after-feel. The ingredient produces a rich, compact lather at moderate concentrations and sustains stability during pressurized filling and aerosolization. It enters the process just before aeration to ensure foamability parameters meet target expansion ratios and collapse times, then passes through rigorous foaming and viscosity controls. Shaving foam and gel lines value its non-stinging profile and compatibility with fragrance and emollient systems, facilitating products with predictable skin tolerance in sensitive application areas. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
6. Mild Hand Soap and Sanitizing Liquid FormulationProducers of mild hand cleansing and sanitizing liquids select this material because of its compatibility with antimicrobial actives, glycols, and skin conditioning agents. Formulators build around it for gentle hand hygiene lines, taking advantage of its mildness for high-frequency use in both healthcare and household settings. Controlled addition during cold or hot process blending enables formation of clear or pearlescent liquid systems, with viscosity adjustment following its integration to achieve non-drip or foaming dispenser requirements. Quality protocols monitor clarity, foam stability, and skin tolerance before bottling for commercial release. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
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Competitive Potassium Lauroyl Glycinate prices that fit your budget—flexible terms and customized quotes for every order.
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Potassium lauroyl glycinate, an amino acid-based surfactant, arrived in our industry because formulators sought safer and milder alternatives to conventional cleansing ingredients. Standard surfactants such as SLS or SLES can foam aggressively yet irritate the skin, especially with repeated use. Over years of working closely with both personal care startups and seasoned formulators, our team has witnessed mounting demand for surfactants gentler on the skin while providing effective cleansing. Potassium lauroyl glycinate steps into that role.
Our manufacturing process follows strict quality control standards at every stage, delivering consistent products to customers. The most common form of potassium lauroyl glycinate we produce comes as a 30% aqueous solution. We maintain strict controls over pH, appearance, active content, and residual impurities. At the plant, we place great value on clarity, odor, and color because we know these qualities affect the end user’s perception long before a product even gets used. The solution appears as a clear to slightly yellowish liquid, meeting the expectations of both formulators and their clients.
pH sits in a range that avoids corrosion in equipment or containers. This stability also encourages straightforward formulation in a variety of end products. Active content of glycinate hovers consistently at the target range, ensuring each batch meets the same standards. Our quality assurance team analyzes residues and heavy metals, and we reduce these to very low levels. Constant testing and monitoring have become part of our routine, not because regulations demand it but because end users expect high standards. If a team wishes to see a specification sheet, our technical department shares the documentation directly, followed by any clarification our clients require.
Cleansers and shampoos intended for sensitive skin form the largest share of final products using this surfactant. Potassium lauroyl glycinate foams gently compared with common alternatives. Our laboratory samples consistently yield a creamy, fine foam rather than a lather filled with large air pockets. Customers report that it feels less stripping, so the skin doesn’t experience the tightness that often follows washing with sulfate-based cleansers.
Working with customers worldwide, we see formulators gravitate towards potassium lauroyl glycinate for facial cleansers, body washes, shaving creams, and even baby products. Dermatologists often give positive feedback, especially for formulas targeted at children and individuals with atopic dermatitis or eczema-prone skin. Feedback cycles keep us aware of trends in irritation testing, HRIPT (human repeat insult patch tests), and comparisons to older surfactants. Our manufacturing process and purity controls help ensure that end products test well for both performance and low irritation indices.
Producing this ingredient brings its own challenges. We source high-purity lauric acid and glycine, then use a salt-forming step under controlled pH and temperature. Precise reaction control gives us a cleaner product and reduces by-products, minimizing unwanted odors or cloudiness. Raw material supply chain issues impact cost and consistency, so over the years, we have built reliable relationships with suppliers, prioritizing traceability and responsible sourcing.
In scaling up from bench to reactor, foaming and filtration can slow down the process. Some manufacturers rush and accept a cloudy product, but our engineers found tweaks in temperature and filtration pressure that boost clarity and shelf life. The final solution resists precipitation when stored at room temperature. This keeps headaches at bay for both our own logistics team and our customers during transit and storage.
Amino acid-based surfactants cover a range: sodium cocoyl glycinate, sodium lauroyl sarcosinate, and sodium methyl cocoyl taurate—all developed to address toxicity or environmental issues tied to older chemical classes. Potassium lauroyl glycinate differentiates itself primarily by its salt type and chain length. Potassium as a counterion contributes to smoother rinse-off, compared to sodium analogues, which can deposit more residue on hair or skin. This subtle feature receives praise from formulators seeking “clean rinse” claims.
Chain length of lauric acid brings antimicrobial activity higher than some fatty acid alternatives, though not at the level seen with quaternary ammonium compounds or strong biocides. Skin feel is also affected. Lauric derivatives deliver a “squeaky clean” sensation, while cocoyl versions can add a heavier skin feel or produce less lather. Our customers designing luxury cleansers increasingly pursue blends, combining potassium lauroyl glycinate with foaming boosters for customized texture.
Prices among these amino acid surfactants remain higher than old commodity surfactants but have dropped as production has scaled. We discuss these factors openly with our clients, especially manufacturers switching from SLES or SLS and worried about raw material cost. Formulators now accept a slight cost jump if the ingredient delivers safety and skin benefits.
Surfactants like SLS, SLES, and even betaines made quick advances back in the day because they produced a mountain of foam at a low cost. Their harshness went unnoticed until skin irritation started becoming a more frequent complaint—not just in patch tests but in actual consumer reports. Years ago, our production team watched as the market changed. Laboratories started requesting samples of new surfactants, and documentation for skin compatibility grew in thickness. Potassium lauroyl glycinate stood out each time, producing lower trans-epidermal water loss values and sending less irritation through repeated-use studies.
Environmental impact also weighs heavily. Traditional surfactants sometimes contribute to aquatic toxicity issues or slow biodegradation. Potassium lauroyl glycinate breaks down more completely and rapidly, supported by both laboratory studies and real-world wastewater plant data. Not only do customers notice less irritation, but environmental compliance teams report fewer headaches. Our own wastewater streams benefit, reducing secondary treatment requirements. Years spent adapting our own handling methods to less toxic surfactants paid off in improved plant safety records and easier compliance with new local ordinances.
We receive requests for guidance on integrating potassium lauroyl glycinate into production lines. Plant chemists need to pay attention to order of addition, as this surfactant can produce microfoam or viscosity shifts if added too quickly or late in the process. pH adjustment works best before adding this surfactant, avoiding hydrolysis or darkening that sometimes results during high-shear mixing. Many of our customers report better emulsion stability by adding it before secondary surfactants or thickeners.
Water quality plays a role too. Water with a high ionic load or microbial content can reduce shelf stability. Our technical services lab recommends demineralized water—this step has reduced yellowing or odor development in final cleansers produced at large scale. With pumpable viscosity, potassium lauroyl glycinate handles easily in batch tanks, flowing smoothly without clumping or sudden thickening under standard industrial conditions.
Preservative compatibility often comes up. Our studies show broad compatibility with common preservatives, from phenoxyethanol to organic acids, as long as the preservative is added after dilution to working strength. This minimizes the risk of unwanted reaction or phase separation, keeping logistic teams and quality inspectors relieved.
Many customers in the personal care sector report breakouts in production: unstable emulsions, product separation during storage, or unexpected color shifts weeks after manufacture. Potassium lauroyl glycinate—thanks to its salt and amino acid structure—brings stability both in emulsion and solution, especially if the formulator pays close attention to pH. Its mildness offers fewer reasons for customers to switch away from finished products, cutting down on returns and negative feedback. Those developing baby products and “tear-free” claims especially benefit from reduced stinging, a factor documented repeatedly in independent patch test data.
Shifting regulatory environments push manufacturers to seek alternatives with strong documentation. Our technical team supports audits with detailed traceability and batch-level data, supporting both site audits and reviewer questions. Our records cover raw material sourcing, reaction parameters, purity checks, and final product testing by third-party labs. We see value in this transparency—regulators, end customers, and even brand owners now request more than just a certificate of analysis.
Our plant recently expanded its amino acid surfactant capacity to meet the continued rise in demand. This investment went into both automation and reducing process waste; we use closed-loop water handling, reducing water use, and minimizing emissions. Our waste treatment plant runs bio-based digestion first, ensuring our outflows meet both national and international standards. Waste-free production remains out of reach industry-wide, but we edge closer year by year.
We have made progress in solvent reduction, a key concern for sustainability in surfactant manufacturing. Traditional syntheses for other surfactants often require organic solvents, but we moved to an aqueous-based system for potassium lauroyl glycinate. This switch lowered emissions, improved safety on the plant floor, and simplified cleanup. Our plant safety statistics improved, and energy expenses dropped.
Potassium lauroyl glycinate began as an ingredient for high-end cosmetic lines but now appears in everyday brands, private label products, and even industrial hand cleaners. This illustrates the shift in market thinking: what began as a specialty has become mainstream. Few surfactants strike the right balance between cleansing power, safety, and environmental stability. Our clients report growth in segments consumers had not considered sensitive-skin targets in the past—from gym washroom products to affordable baby cleansers in developing markets.
Experience shows that flexibility matters. Pack sizes range from drums for large-scale plants to smaller carboys requested by boutique brands. Communication with each client looks different, but we always start with practical use experiences—what works on a hundred-kilogram scale might not perform the same at fifty tonnes, and vice versa. By sharing case studies and field usage feedback, we help manufacturers tune their process, saving both time and raw material losses.
We’ve watched demand for “clean beauty” formulas shift from marketing fad to baseline expectation. Today’s consumer reviews ingredient lists, searches online for unfamiliar names, and calls manufacturers for explanations. Potassium lauroyl glycinate earns trust, not just because it sounds “natural” but because its safety and mildness can be backed by hard data. Our conversations with R&D labs now always address not only what an ingredient does, but how and why.
Large-scale brands request more documentation and support on regulatory submissions from our technical team. Brand owners in regions adopting stricter chemical controls, such as California, move fastest to swap out harsher surfactants for glycinate-based cleansers. The trend also crosses into niche areas—men’s grooming, intimate care products, and ethnic/region-specific lines now seeking safer, more sustainable cleansing bases.
Our R&D group continues to push for even milder blends, using potassium lauroyl glycinate as a base together with moisturizing agents, mild foaming boosters, or botanical extracts. We test mixes in climate-controlled stability chambers and on human volunteers with varying skin types. Our most significant improvements this year focus on further reducing minor impurities and off-odors, supporting fragrance-free and hypoallergenic claims. Changing consumer preferences keep the focus on both cleaner ingredients and transparent processes.
Plant upgrades now in progress will further reduce water, energy, and emissions. Laboratory trials look at new chelating agents and alternative pH adjusters to make formulation even more user-friendly and adaptable. We track all batch quality trends, learning from every outlier, every call from a customer’s QC team, and every end-user review passed on by our partners.
From the view inside the plant, potassium lauroyl glycinate represents more than just the outcome of a chemical reaction. It marks the industry’s attempts to move forward—to reconcile consumer safety, real performance, and environmental stewardship. We’ve watched this ingredient move from R&D concept to staple for both global and emerging markets. Lessons learned through trial, feedback, and product adaptation guide us every day.
Our commitment rests on providing a consistent, reliable supply of potassium lauroyl glycinate and supporting our partners in adapting to both technical and market demands. With every batch, every test, and every consultation, we hold ourselves to high standards not because rules require it—but because the teams who depend on our materials, and the end users they serve, have real expectations and concerns.
The journey never completely ends here. As chemists and manufacturers, we look at problems through the lens of chemistry but respond to the realities of people and planet. Potassium lauroyl glycinate may be a single ingredient, but its path from raw material to finished product covers multiple industries, needs, and priorities. That is why, for us, production always links back to daily experience, and the ongoing pursuit of something better for every person who uses what we create.
