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Sulfated Methyl Oleate is a brown-red transparent oily substance.
Sulfated Methyl Oleate is hydrolyzed under the condition of strong acid and alkali, and it is an anionic surfactant.
Sulfated Methyl Oleate is a specialty anionic surfactant derived from methyl oleate, a fatty acid methyl ester produced from oleic acid.
CAS Number: 42808-36-6
Molecular Formula: C22H44O6S.Na
Molecular Weight: 459.64
EINECS Number: 255-950-0
Synonyms: sodium butyl 9(or 10)-(sulphonatooxy)octadecanoate;Octadecanoic acid, 9(or 10)-(sulfooxy)-, 1-butyl ester, sodium salt;Butyl oleate, sulfated, sodium salt;Octadecanoic acid, 9-(sulfooxy)-, 1-butyl ester, sodium salt;Butyl oleate sulfate sodium salt;sodium butyl oleat sulfate;Octadecanoic acid, 9(or 10)-(sulfooxy)-, 1-butyl ester, sodium salt (1:1);sodium butyl oleate sulfate
Sulfated Methyl Oleate is chemically modified through sulfation to introduce hydrophilic sulfate functionality while retaining the long fatty hydrocarbon chain of the original ester.
Sulfated Methyl Oleate is commonly associated with CAS Number 68953-26-4.
Commercial products under this CAS are generally supplied as sulfated methyl oleate in an aqueous formulation rather than as a completely pure single molecular species.
Sulfated Methyl Oleate, the starting material, is the methyl ester of oleic acid and is commonly identified by CAS Number 112-62-9.
After sulfation, the resulting molecule has substantially different surface-active and water-dispersible properties compared with unmodified methyl oleate.
Sulfated Methyl Oleate contains a hydrophobic fatty chain and a hydrophilic sulfate-containing group.
This amphiphilic structure allows the material to interact with both aqueous and oil-based phases, giving it useful surfactant, emulsifying, wetting, and dispersing properties.
The sulfate functionality is responsible for much of its water compatibility and anionic character.
Meanwhile, the long hydrocarbon chain derived from oleic acid contributes lubricity and affinity toward hydrophobic materials.
Sulfated Methyl Oleate can contain a mixture of related components and formulation ingredients, it is more appropriate to describe it according to its functional properties and commercial specifications rather than assigning one molecular formula to every grade.
The exact composition can depend on the methyl oleate feedstock, sulfation conditions, degree of reaction, neutralization, and subsequent formulation.
Commercial Sulfated Methyl Oleate is frequently supplied as a water-based liquid.
Representative products contain approximately 27–33% active material, with the remainder consisting primarily of water and formulation components, although higher- or lower-active grades may also be available.
Sulfated Methyl Oleate material can appear as a clear, slightly hazy, cream-colored, or amber liquid, depending on the grade and manufacturer.
Representative specifications for commercial products include a pH around 6.5–7.5, while physical properties such as viscosity, solids content, and color can vary between grades.
One of the main characteristics of Sulfated Methyl Oleate is its ability to reduce surface and interfacial tension.
This allows it to improve the contact between water and hydrophobic materials such as oils, polymers, pigments, and rubber particles.
Sulfated Methyl Oleates surface activity makes the material useful as a wetting agent, emulsifier, dispersant, stabilizer, leveling agent, and processing aid.
These functions are particularly important in aqueous industrial formulations where conventional oil-based materials would have poor water compatibility.
Sulfated Methyl Oleate is especially important in latex and rubber processing.
Sulfated Methyl Oleate can help stabilize latex dispersions and improve the distribution of rubber particles and other formulation components throughout the aqueous phase.
In latex systems, the material can also contribute to film uniformity and surface quality.
Improved wetting and dispersion can help reduce surface defects and support smoother, more consistent polymer films.
The chemical is used in formulations involving natural rubber and synthetic latexes.
Sulfated Methyl Oleate can be particularly useful in latex-dipping operations where consistent deposition of polymer onto a mold or substrate is required.
Sulfated Methyl Oleate also has applications in the textile industry.
Its wetting and leveling properties can assist the uniform distribution of dyes and other textile-processing chemicals.
Sulfated Methyl Oleate can function as a dyeing auxiliary and acid-dye leveling agent.
By modifying the interaction between the aqueous dye bath and textile fibers, it can help promote more uniform treatment and reduce problems associated with uneven dye distribution.
The fatty ester structure also gives Sulfated Methyl Oleate useful lubricating characteristics.
This makes it different from many conventional surfactants that primarily provide wetting or detergency without significant oil-derived lubricity.
For this reason, Sulfated Methyl Oleate can be incorporated into lubricants and metalworking fluids.
Sulfated Methyl Oleate can provide emulsification and lubricity in water-containing systems while maintaining useful surface-active behavior.
Another important application area is water-based coatings and polymer formulations.
The material can improve wetting and dispersion and help maintain a more uniform distribution of hydrophobic components within aqueous systems.
Sulfated Methyl Oleate can contribute to dispersion, stabilization, wetting, film uniformity, smoothness, and gloss.
These characteristics make it useful as a formulation auxiliary for polymer-based coatings.
Sulfated Methyl Oleate can also be used in printing and specialty ink formulations.
Sulfated Methyl Oleates surface activity can assist the wetting and dispersion of pigments and other components that have limited compatibility with water.
Sulfated Methyl Oleate can also function as an emulsifier for hydrophobic materials.
It helps create an interface between oil-based components and water, making it possible to formulate more stable aqueous dispersions and emulsions.
Its relatively controlled foaming behavior can be advantageous in certain industrial processes.
This is particularly relevant to applications such as metalworking, latex processing, and other systems where excessive foam can interfere with processing or equipment operation.
Sulfated Methyl Oleate can also be incorporated into cleaning and industrial formulation systems.
Sulfated Methyl Oleates wetting and emulsifying characteristics can help water contact oily surfaces and assist in dispersing hydrophobic contaminants.
The material is also relevant to agricultural formulation technology.
Sulfated Methyl Oleates surfactant properties can support the wetting and dispersion of hydrophobic formulation ingredients, although suitability depends on the specific active ingredient and regulatory requirements.
Another advantage is its potential use in formulations requiring fatty-acid-derived or vegetable-oil-derived surfactant chemistry.
Sulfated Methyl Oleate feedstock can be obtained from oleic-acid-rich vegetable oils, making the material relevant to manufacturers seeking bio-derived formulation components.
Sulfated Methyl Oleate should not, however, be confused with sulfated castor oil.
Although both are fatty-material-derived anionic surfactants, sulfated castor oil originates from castor-oil chemistry, whereas Sulfated Methyl Oleate is based on the methyl ester of oleic acid.
The two materials can therefore show different emulsification, wetting, lubricating, electrolyte tolerance, and formulation characteristics.
The appropriate product should be selected according to the requirements of the specific application rather than treating different sulfated fatty materials as interchangeable.
Sulfated Methyl Oleate is a water-compatible anionic surfactant derived from methyl oleate, combining wetting, emulsification, dispersion, stabilization, leveling, and lubricating properties.
Sulfated Methyl Oleates major industrial applications include latex and rubber processing, textile dyeing, coatings, printing inks, lubricants, metalworking fluids, agricultural formulations, cleaning systems, and other water-based specialty formulations.
Sulfated Methyl Oleate can also be understood as a functional surfactant for controlling the behavior of dispersed particles, rather than simply an additive that improves wetting.
Its anionic character helps maintain electrostatic stabilization in aqueous formulations and can reduce the tendency of dispersed particles to agglomerate.
This property is particularly useful when several solid ingredients must be incorporated into a latex compound.
Sodium salts of Sulfated Methyl Oleate have been used as dispersing agents for sulfur, zinc oxide, and rubber-accelerator dispersions used in dipped latex products.
In rubber compounding, the chemical can therefore contribute to more consistent distribution of formulation additives.
Uniform dispersion is important because localized concentrations of curing agents, pigments, fillers, or other additives can lead to variations in the final rubber properties.
Sulfated Methyl Oleate is also relevant to preparation of concentrated dispersions.
Rather than adding every formulation ingredient directly to the latex, individual components can first be dispersed with suitable surfactants before being incorporated into the final compound.
This approach can improve the reproducibility of industrial latex formulations.
Sulfated Methyl Oleate also gives manufacturers greater control over viscosity, dispersion stability, mixing behavior, and the final distribution of functional additives.
The chemical has a particularly interesting role in film conditioning.
Unlike a stabilizer whose primary purpose ends once the latex has been kept dispersed, Sulfated Methyl Oleate can continue influencing the surface characteristics as the latex particles form a continuous film.
This film-conditioning behavior is important in dipped rubber products.
A more uniform surface can improve the visual appearance of the finished article and reduce defects associated with uneven deposition during dipping.
Commercial technical information specifically describes Sulfated Methyl Oleate as a material that can improve the smoothness and gloss of films produced from neoprene and natural latex compounds.
Sulfated Methyl Oleate can also reduce surface tension and help minimize visible surface striations.
These properties explain why the chemical is used in latex dipping compounds for gloves and similar products.
During dipping, the formulation must wet the former or substrate effectively while maintaining sufficient stability to produce a continuous polymer layer.
Sulfated Methyl Oleate can assist with this balance by combining stabilization, wetting, and film-conditioning functions.
Commercial descriptions also report improved film-thickness uniformity and adhesion in glove manufacturing.
InChIKey: CAQMWFJWGWYQCY-XJYPRCJUSA-L
SMILES: [Na+].[Na+].C(OCCCC)(=O)CCCCCCC/C=C\CCCCCCCC.S([O-])([O-])(=O)=O
FDA 21 CFR: 176.170
Sulfated Methyl Oleate also has a more specialized role in latex film conditioning than a conventional general-purpose surfactant.
In latex formulations, it can influence the surface characteristics of the final polymer film rather than simply keeping the dispersion stable.
One of its notable effects is improving the smoothness and gloss of latex films.
This property is particularly relevant to natural rubber, neoprene, polyisoprene, and other latex-based products where surface appearance and film quality are important.
Sulfated Methyl Oleate can also reduce surface tension within the latex system.
Sulfated Methyl Oleate helps improve the interaction between the aqueous phase and the polymer particles and can reduce visible surface striations in the finished film.
Sulfated Methyl Oleate is therefore sometimes described as a film surface conditioner rather than only as a stabilizer.
Sulfated Methyl Oleate distinction is important because its contribution can remain relevant during film formation even when another surfactant is responsible for primary latex stabilization.
In natural rubber latex, Sulfated Methyl Oleate can be incorporated alongside other surfactants such as sodium alkyl sulfates.
The combination can provide both dispersion stability during processing and improved surface characteristics after the latex has formed a film.
Sulfated Methyl Oleate is also used in synthetic rubber latex systems.
Documented applications include polychloroprene and synthetic polyisoprene latex formulations, where the material functions as a surface modifier or dispersing/stabilizing additive.
Sulfated Methyl Oleate is particularly relevant to latex dipping technology.
During dipping, the latex must remain sufficiently stable before deposition while also producing a continuous and uniform film on the former.
This makes Sulfated Methyl Oleate useful in the production of dipped latex goods.
Applications can include gloves and other molded or dipped rubber products in which film thickness, adhesion, smoothness, and surface appearance are important.
In glove manufacturing, the material can improve latex stability and support more uniform film thickness during dipping.
Sulfated Methyl Oleates wetting action can also assist penetration into the fabric and contribute to improved adhesion and a smoother finished surface.
Sulfated Methyl Oleate is also used as a processing aid for latex coatings.
Sulfated Methyl Oleates dispersing and stabilizing properties help maintain a more homogeneous formulation before and during application.
The material can participate in the dispersion of other ingredients used in rubber formulations.
For example, sodium salts of sulfated methyl oleate have been used with dispersions containing zinc oxide, sulfur, and rubber accelerators.
This makes it relevant to rubber compounding, where uniform distribution of additives is essential for consistent curing and mechanical properties.
Sulfated Methyl Oleates role is generally that of a formulation auxiliary rather than a primary curing or crosslinking agent.
Another characteristic of Sulfated Methyl Oleate is its fatty-chain-derived lubricity.
The oleate portion gives the molecule affinity for hydrophobic surfaces, while the sulfate functionality provides the water compatibility required for aqueous processing systems.
This combination can be useful in lubricant and metalworking-fluid formulations.
Commercial descriptions identify sulfated methyl oleate products as emulsifiers with low-foam and lubricity characteristics for these applications.
In metalworking formulations, its emulsifying behavior can help bring together water and oil-compatible components.
Sulfated Methyl Oleates surface-active structure can also contribute to the formation of a lubricating layer at interfaces.
Sulfated Methyl Oleate can also be considered where controlled foaming is important.
Commercial formulations describe methyl-oleate-based products as having a relatively low foam profile, which can be advantageous compared with strongly foaming surfactants in certain industrial systems.
The material has relevance to textile processing because surfactants of this type can improve wetting and assist the uniform treatment of fibers.
Sulfated Methyl Oleates surface activity can help aqueous processing solutions contact textile substrates more effectively.
In textile formulations, the fatty ester structure can additionally contribute lubricating behavior.
This can be useful where fiber handling, surface modification, or processing smoothness is required.
Sulfated Methyl Oleate can also be incorporated into coating formulations where dispersion and emulsification of hydrophobic components are required.
Its use in aqueous systems is particularly attractive because the sulfated form provides substantially greater compatibility with water than unmodified methyl oleate.
The material can assist in maintaining a more uniform distribution of formulation ingredients.
This can contribute to consistent application behavior and more uniform film formation.
Commercial grades are often supplied as aqueous solutions rather than as dry pure surfactant.
For example, representative grades contain approximately 27–33% active sulfated methyl oleate and are supplied as clear to slightly hazy amber liquids with a near-neutral pH.
The commercial formulation is important when evaluating its physical properties.
Appearance, active content, chloride level, pH, viscosity, and storage behavior can vary according to the manufacturer and grade.
Sulfated Methyl Oleate is also described as a water-soluble anionic and biodegradable surfactant in commercial latex-additive literature.
This combination of water compatibility and fatty-ester origin contributes to its use as an alternative to some conventional synthetic surfactants in selected formulations.
Sulfated Methyl Oleates biodegradability can be advantageous in applications where environmental considerations influence surfactant selection.
However, the environmental profile of the finished formulation depends on the complete composition rather than on Sulfated Methyl Oleate alone.
Another useful characteristic is its ability to act as both a dispersant and stabilizer.
Having these functions in the same additive can simplify latex formulations by allowing one component to influence particle stability, wetting, and film surface behavior simultaneously.
Sulfated Methyl Oleate is best viewed as a multifunctional anionic surfactant and formulation aid rather than simply a detergent.
Its combination of dispersing, stabilizing, wetting, emulsifying, film-conditioning, leveling, and lubricating properties explains its broad use across latex, rubber, coatings, textile, lubricant, and metalworking applications.
Uses:
Sulfated Methyl Oleate is used as a spinning oil for cotton filament and staple fiber, and also for viscose cord.
Sulfated Methyl Oleate is used as a wetting agent and softener in the printing and dyeing industry.
Sulfated Methyl Oleate is primarily used as a specialty anionic surfactant and formulation aid in aqueous industrial systems.
Sulfated Methyl Oleates combination of dispersing, stabilizing, wetting, emulsifying, and surface-modifying properties makes it particularly valuable in latex and rubber formulations.
One of its most established applications is in latex processing.
Sulfated Methyl Oleate is used as a stabilizer and processing aid for both natural and synthetic latex systems, helping maintain formulation stability during compounding and application.
Sulfated Methyl Oleate is widely used in latex dipping compounds.
During dipping operations, it helps maintain a stable latex dispersion while supporting uniform deposition of the polymer film onto a former or substrate.
Sulfated Methyl Oleate is particularly relevant to the manufacture of dipped latex gloves.
Commercial descriptions indicate that it can improve latex stability, film-thickness uniformity, wetting, adhesion, and the smoothness of the finished glove surface.
In glove manufacturing, its wetting action can help the latex formulation contact textile or other reinforcing substrates more effectively.
This can help reduce blister formation and improve the adhesion between the latex film and the underlying material.
Another important use is in neoprene latex formulations.
Sulfated Methyl Oleate can act as a modifier for chloroprene rubber latex dipping compounds and can improve the appearance and surface characteristics of the resulting latex film.
The material can improve the smoothness and gloss of latex films.
Sulfated Methyl Oleate can also reduce surface tension and help decrease the appearance of surface striations, making it useful where a more uniform film appearance is required.
Sulfated Methyl Oleate is also used as a dispersing agent in rubber compounding.
Its anionic surface activity can help distribute formulation ingredients more uniformly within aqueous rubber dispersions.
This function is useful when latex formulations contain additives such as curing agents, accelerators, pigments, or inorganic materials.
Maintaining a stable and homogeneous dispersion helps reduce localized concentrations of ingredients and supports more consistent processing.
Sulfated Methyl Oleate is also employed in latex coatings.
In these formulations, it can function simultaneously as a dispersant and stabilizer, helping maintain the uniformity of the coating before and during application.
Sulfated Methyl Oleate can be useful in rubber-coated fabrics and impregnated textiles.
Its wetting properties can facilitate contact between aqueous latex formulations and fibrous substrates, supporting more uniform coating or impregnation.
Another application area is textile processing.
Its surfactant properties can improve wetting and assist the uniform treatment of textile fibers during aqueous processing.
Sulfated Methyl Oleate can also be used as a dyeing auxiliary and leveling agent.
Sulfated Methyl Oleates surface-active behavior can help promote more uniform interaction between textile substrates and aqueous dye formulations.
The material is relevant to processes where consistent wetting of fabrics is important.
Improved wetting can allow processing liquids to spread more effectively across the textile surface and penetrate areas that might otherwise be difficult to wet uniformly.
Sulfated Methyl Oleate can also be used in coating and polymer-dispersion systems.
Sulfated Methyl Oleates dispersing properties can help maintain the distribution of hydrophobic components within water-based formulations.
In water-based coatings, the surfactant can contribute to emulsion stability and application uniformity.
This makes it useful where hydrophobic polymeric or formulation components need to remain dispersed throughout an aqueous phase.
Sulfated Methyl Oleate also has potential applications in cleaning formulations.
Its wetting and emulsifying properties can help water contact oily or hydrophobic surfaces and assist with the dispersion of oily contaminants.
Sulfated Methyl Oleate can be incorporated into industrial cleaners and specialty detergent systems where controlled surfactant activity is required.
Sulfated Methyl Oleates fatty-chain structure provides affinity for hydrophobic residues while the sulfate group provides compatibility with the aqueous phase.
Another potential application is in lubricant formulations where anionic surfactants are required to emulsify or disperse oil-compatible components.
The methyl-oleate-derived structure can provide useful interfacial and lubricating characteristics in water-containing systems.
Sulfated Methyl Oleate can also be considered for metalworking-fluid formulations where emulsification, wetting, and lubricity are required simultaneously.
Sulfated Methyl Oleates use in such systems is related to the broader functionality of methyl oleate derivatives as emulsifying and lubricating materials.
The chemical can also contribute to oil-in-water emulsification.
Its amphiphilic structure allows it to position itself at the interface between aqueous and hydrophobic phases, helping facilitate the formation and stabilization of dispersed systems.
Sulfated Methyl Oleate is useful in applications where low or controlled foam behavior is preferred.
This can be advantageous in industrial processing systems where excessive foam can interfere with pumping, mixing, coating, or dipping operations.
Another use is as a processing aid for polymer systems.
By improving wetting and dispersion, it can make aqueous polymer formulations easier to process and can contribute to more consistent application.
The material can also be used where surface tension modification is important.
Reducing surface tension can improve spreading over substrates and help produce more uniform coatings or films.
Sulfated Methyl Oleate is relevant to adhesion-related applications as well.
Improved wetting allows a formulation to establish closer contact with a substrate, which can support stronger adhesion in latex-coated materials.
Sulfated Methyl Oleates use in film-forming systems is especially important because its effects extend beyond initial dispersion.
By influencing wetting, particle distribution, and surface tension, it can contribute to the quality and appearance of the final polymer film.
Sulfated Methyl Oleate can also be used in formulations requiring a biodegradable, water-soluble anionic surfactant.
Commercial technical information describes sodium sulfated methyl oleate as a water-soluble, biodegradable surfactant used in latex dipping and coating applications.
Sulfated Methyl Oleate can therefore serve as an alternative to some conventional surfactants when manufacturers are looking for a fatty-ester-derived surface-active material.
The suitability of the material depends on the required active concentration, electrolyte tolerance, foam behavior, compatibility, and processing conditions.
Commercial grades are generally supplied as aqueous solutions, so their use level must be calculated according to active Sulfated Methyl Oleate content.
For example, one commercial grade specifies approximately 27–33% active material, with the product supplied as a clear to slightly hazy amber liquid.
Sulfated Methyl Oleate uses of Sulfated Methyl Oleate are found in latex and rubber processing, glove manufacturing, latex coatings, polymer dispersions, textile processing, cleaning formulations, lubricants, and other specialty aqueous systems.
Its ability to combine stabilization, dispersion, wetting, emulsification, surface modification, and film-conditioning functions makes it a multifunctional additive rather than a simple general-purpose surfactant.
Sulfated Methyl Oleate is also used as a surface-conditioning additive for rubber latex films.
In this role, it is not simply added to maintain latex stability, but is specifically used to influence the surface characteristics of the film formed after drying and curing.
Sulfated Methyl Oleate can be incorporated into natural rubber latex formulations to improve the quality of the resulting film.
Patent literature describes sulfated methyl oleate as a film surface conditioner in high-ammonia natural rubber latex systems.
The same function is relevant to polychloroprene latex.
In neoprene-based formulations, Sulfated Methyl Oleate can be used together with a primary latex stabilizer and curing ingredients to modify the surface properties of the finished film.
Sulfated Methyl Oleate is also used in synthetic polyisoprene latex.
Examples of latex-compounding processes use its sodium salt together with other surfactants and dispersants to prepare stable synthetic rubber formulations.
Another application is the preparation of rubber additive dispersions.
Sodium salts of Sulfated Methyl Oleate can serve as anionic dispersing agents for materials such as zinc oxide and zinc dithiocarbamate accelerators before these dispersions are incorporated into latex compounds.
Sulfated Methyl Oleate can also be used for preparing sulfur dispersions for rubber vulcanization systems.
This application takes advantage of the surfactant's ability to help maintain a more uniform distribution of poorly water-soluble ingredients in aqueous formulations.
This makes Sulfated Methyl Oleate relevant to latex compounding operations where several insoluble ingredients must be distributed in water.
The surfactant can help improve dispersion quality before the ingredients are combined with the main latex.
The material is also useful in latex formulations exposed to significant mechanical processing.
Additional surfactant stabilization can be important when latex is subjected to mixing, pumping, fabric impregnation, or prolonged residence in processing equipment.
Sulfated Methyl Oleate can therefore contribute to processing stability during industrial latex production.
Maintaining the dispersion during these operations helps reduce problems caused by particle aggregation or instability.
Another application is latex-based coated products.
Commercial technical information identifies Sulfated Methyl Oleate as a processing aid for latex dipping and coating, making it relevant to products in which an aqueous rubber dispersion must be deposited uniformly onto a surface.
Sulfated Methyl Oleate can be particularly useful where the final coating must have a smooth and visually uniform surface.
Commercial Darvan SMO information specifically associates the product with improved smoothness and gloss of chloroprene rubber latex films.
Sulfated Methyl Oleate is also used where surface striation needs to be minimized.
Sulfated Methyl Oleates ability to reduce surface tension can help improve the appearance of latex films and reduce visible irregularities.
The chemical has applications in fabric impregnation with latex.
Sulfated Methyl Oleates wetting properties can help aqueous latex formulations penetrate and contact textile structures more effectively during impregnation and coating operations.
This makes it relevant to rubberized textiles and flexible coated fabrics.
Uniform wetting and polymer distribution are important for achieving consistent coating thickness and reliable adhesion across the textile substrate.
Sulfated Methyl Oleate is also used in the textile processing industry as a wetting agent.
Commercial technical documentation describes it as a wetting agent, dye assistant, and acid-dye leveling agent, giving it applications beyond rubber and latex.
As a dye assistant, it can help improve the interaction between textile fibers and aqueous dyeing formulations.
This can support more consistent treatment of the textile substrate during wet-processing operations.
Sulfated Methyl Oleates use as an acid-dye leveling agent is particularly relevant to textile systems where uniform dye uptake is required.
The surfactant can help control the interaction between the dye bath and fiber surface, supporting more even coloration.
Sulfated Methyl Oleate can also provide lubricating action during textile processing.
Its fatty-chain-derived structure gives it properties that can assist processing where both surface activity and lubrication are desirable.
Another industrial use is in water-based polymer coatings.
Its dispersant and stabilizer functions can help maintain uniformity in formulations containing polymer particles and other hydrophobic ingredients.
Sulfated Methyl Oleate can also be used in film-forming polymer systems where surface quality is important.
The combination of wetting and surface-conditioning properties can influence how the formulation spreads and how the final film develops.
Sulfated Methyl Oleate is additionally suitable for specialty cleaning formulations.
Commercial product information lists cleaners among the application areas, reflecting its ability to improve wetting and assist the interaction of aqueous formulations with hydrophobic soils.
Sulfated Methyl Oleates emulsifying behavior can also be useful when oil-based and water-based ingredients need to coexist in an aqueous formulation.
The amphiphilic structure allows the surfactant to position itself at interfaces and support the formation of more stable dispersed systems.
Sulfated Methyl Oleate can be considered for lubricating formulations requiring anionic surface activity.
Commercial technical information identifies the material as a good lubricant in addition to its wetting, stabilizing, and dyeing functions.
The combination of lubrication and water compatibility can be useful in industrial aqueous processing systems.
This allows the material to contribute both interfacial control and friction-reducing properties within the same formulation.
Another use is as a processing aid in specialty rubber compounds.
Its ability to assist dispersion and surface conditioning can be useful when manufacturers need consistent processing behavior as well as controlled final-film properties.
Sulfated Methyl Oleate is also relevant to coated and dipped rubber articles.
Sulfated Methyl Oleates use in latex dipping compounds makes it suitable for manufacturing processes where the thickness, surface quality, wetting, and adhesion of a rubber film must be carefully controlled.
In some latex applications, it can be used alongside other anionic surfactants rather than replacing them completely.
For example, formulations may combine Sulfated Methyl Oleate with sodium alkyl sulfates so that stabilization and specialized surface-conditioning functions are provided by different components.
This makes the material especially valuable in multicomponent latex formulations.
Sulfated Methyl Oleates role can be adjusted according to whether the formulation requires stronger dispersion, improved wetting, better film appearance, or additional processing stability.
Sulfated Methyl Oleate has applications across latex dipping, rubber compounding, glove manufacturing, neoprene films, natural and synthetic rubber, textile processing, fabric impregnation, coatings, cleaning formulations, and specialty aqueous processing systems.
Its broad usefulness comes from the fact that one material can provide several functions, including stabilization, dispersion, wetting, lubrication, dye assistance, leveling, and surface conditioning.
Safety Profile:
Sulfated Methyl Oleate is generally considered a relatively low-hazard specialty surfactant, but commercial grades can still present irritation hazards during handling.
The exact hazard classification depends on the concentration, formulation, and specific commercial grade, so the supplier's current Safety Data Sheet should be used for workplace classification.
For a commercial product identified as Sulfated Methyl Oleate Sodium Salt, CAS 68953-26-4, an SDS classifies the material as Eye Irritation Category 2B.
The corresponding signal word is Warning, with the hazard statement that the product causes eye irritation.
Eye exposure is therefore one of the primary hazards that should be considered when handling Sulfated Methyl Oleate.
Direct contact can produce irritation, discomfort, redness, watering, or a burning sensation.
The risk of eye irritation is particularly relevant when handling concentrated commercial grades.
Products containing approximately 25–35% sulfated methyl oleate sodium salt have been specifically classified for eye irritation in available SDS documentation.
Appropriate eye protection should therefore be worn during industrial handling.
Chemical safety goggles are preferable where splashing is possible, especially during transfer, mixing, dilution, or formulation operations.
If Sulfated Methyl Oleate enters the eyes, the affected eyes should be rinsed cautiously with water for several minutes.
Contact lenses should be removed if this can be done easily, and rinsing should be continued; medical attention should be obtained if irritation persists.
Skin contact is generally a less significant concern than direct eye exposure for the commercial grades covered by these SDS documents.
Nevertheless, prolonged or repeated contact should be avoided because industrial surfactant formulations can cause irritation in sensitive individuals.
Protective gloves are appropriate when the material is handled repeatedly or for extended periods.
Gloves also help prevent contamination of the hands during transfer and mixing operations.
Any contaminated skin should be washed thoroughly with soap and water.
Work clothing contaminated with the product should be removed and washed before reuse.
Sulfated Methyl Oleate is normally supplied as an aqueous liquid formulation, rather than as a volatile solvent.
Representative commercial grades are described as clear to slightly hazy amber liquids with approximately 27–33% active material.
Supply Of Sulfated Methyl Oleate:
For further information about Sulfated Methyl Oleate, including available product grades, technical specifications, application suitability and supply options, please contact Ataman Kimya.
