Sorbitan Monostearate

Organophilic Clay For Oil Drilling Mud

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Organoclay For Solvent Based Paint

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Organoclay For Water Based Paint

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Organo Bentonite For Grease

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Organoclay For Cosmetics

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Organoclay For Inks

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Wax Emulsion for Drilling Fluid

Wax emulsion can not only be used in drilling mud, but also widely used in the fields of coatings and inks, paper and packaging, and plastics.

In the textile and leather industries, it is used as a wear-resistant agent, lubricant, and matting agent, while the use of wax emulsion in leather can give it a better feel and can prevent stains and protect it.

It can be said that the application of wax emulsion is extremely wide.

In addition to the applications we mentioned above, it can also be applied to the ceramic industry, concrete maintenance and sealing industry, as well as adhesives, sealants, and cosmetics.

Wax Emulsion for Drilling Mud

Wax emulsion is used in drilling mud. The first role it plays is to protect the stability of the well wall, and to play a role in lubrication and reducing resistance. At the same time, it can effectively reduce its filtration loss and protect the reservoir.

The reduction of filtration loss is mainly because drilling fluid is more likely to lose drilling fluid, which affects the stability of the well body.

Therefore, we use wax emulsion to seal the gaps in the formation and form a more resilient membrane, so that the pressure membrane of the well wall is not easy to be broken.

ORGANOCLAY:

Our Five-Star Treatment Media

Your first choice for removing organic contaminants from water or sediment, the ORGANOCLAY product range provides formulations to meet almost any adsorption application.

Used and trusted worldwide, it’s proven to work efficiently and effectively.

A little goes a long way – and reduces costs

ORGANOCLAY’s substantial adsorption capacity not only reduces necessary cap thickness compared to a conventional sand cap but can also extend cap life—in some circumstances, for years—and reduce overall costs.

Because ORGANOCLAY can be used as a pre-treatment to Granular Activated Carbon (GAC), ORGANOCLAY can increase overall efficiency by preventing surface pores in GAC from blinding.

The ORGANOCLAY Product Range

Powerfully adsorbant ORGANOCLAY is available in multiple formulations to best mitigate water and sediment contamination in a variety of specific conditions:

ORGANOCLAY: Our coarsest grain media, ORGANOCLAY is a larger and denser version of ORGANOCLAY CP-200 to aid in settling through the water column. When used for sediment capping, ORGANOCLAY can be placed hydraulically or mechanically.

Applications:

Sediment Capping

Organoclay_Sample_Shot

ORGANOCLAY : A proprietary granular filtration media that reliably adsorbs oils and similar organics from water. It is a brown and black mixture of 30% active ORGANOCLAY and 70% anthracite filter media, which allows for maximum utilization of the large sorption capacity of ORGANOCLAY without excessive pressure build-up in the column. When used as an in-series filtration media prior to an activated carbon vessel, ORGANOCLAY extends the life and adsorbency of the activated carbon by removing larger molecular organics before they reach it. It also lowers the overall operating cost relative to using activated carbon alone. ORGANOCLAY can also be used in standalone mode to treat oil-contaminated water and stream condensates.

Applications:

Groundwater Pump-and-Treat

Sediment Dewatering Treatment

Organoclay

ORGANOCLAY: In addition to adsorbing non-aqueous phase liquids and dissolved low-solubility organics, specially-formulated, sulfur-impregnated ORGANOCLAY sequesters mercury (Hg0, Hg+1 and Hg+2) and arsenic (As+5) from water. Ideal for groundwater pump-and-treat or sediment dewatering treatment, ORGANOCLAY can also be used in soil or sediment solidification/stabilization or as an additive to Portland Cement.

Applications:

Groundwater pump-and-treat

Sediment dewatering treatment

Solidification/stabilization

ORGANOCLAY CP-199: Our second finest grain media, ORGANOCLAY CP-199 features high adsorption capacity of oils, greases, and other NAPL. When used as an in-series filtration media prior to an activated carbon vessel, ORGANOCLAY CP-199 extends the life and adsorbency of the activated carbon by removing larger molecular organics that can cause fouling. ORGANOCLAY CP-199 also works as a standalone treatment media to treat oil-contaminated water and stream condensates.

Applications:

Organophilic Filtration Media

Bulk Sediment Capping

Solidification/Stabilization additive

Organoclay_Sample_Shot

ORGANOCLAY CP-200: Our second coarsest grain media, ORGANOCLAY CP-200’s particle size aids in settling through the water column when placing a bulk active in-situ sediment cap. ORGANOCLAY CP-200 is also your best match for intermixing with coarse inert soil for use of a Permeable Reactive Barrier (PRB).

Applications:

Bulk Sediment Capping

Permeable Reactive Barrier (PRB)

Organoclay_Sample_Shot

ORGANOCLAY 199: Our finest-grain media, ORGANOCLAY 199 features medium adsorption of oils, greases, and helps stabilize organics for increased solidification of treated soils and sediment. ORGANOCLAY 199 is for use in soil or sediment solidification/stabilization or as an additive to Portland Cement.

Applications:

In Situ Solidification

How it does it

The ORGANOCLAY product line is a range of proprietary adsorption media that is highly effective in removing oils, greases and other high molecular weight, low solubility organic compounds from aqueous streams. ORGANOCLAY products are specialty sorbents, altered to an organophilic state making them attractive to organic molecules.

Camp Shinning – Pioneer and leader in environmental remediation

Camp Shinning is the leader and pioneer in cutting-edge environmental remediation solutions. Around the globe, our innovative teams of clay mineralogists, chemists, and polymer scientists transform ordinary minerals into extraordinary technology to solve day-to-day problems worldwide.

Organoclay is an organically modified phyllosilicate, derived from a naturally occurring clay mineral. By exchanging the original interlayer cations for organocations (typically quaternary alkylammonium ions) an organophilic surface is generated, consisting of covalently linked organic moieties. The lamellar structure remains analogous to the parent phyllosilicate.

Separation of the layers due to ion exchange, from the initial interlayer spacing of as little as 3 Å in the case of Na+ cations to the distances in the range of 10–40 Å as well as the change of chemical character of the clay surface, allows the in-situ polymerization or mixing with certain polymers to obtain what is known as nanocomposite. When ordered aluminosilicate sheets are lying parallel to each other, separated with polymer chains of certain type, the system is classified as intercalated nanocomposite. If separation of the layers is so significant, that they are no longer lying opposite to one another, but randomly ordered, then one get the exfoliated nanocomposite.

Applications

Owing to its large surface area together with hydrophobic chains emerging from the clay surface, organoclay can be used to remove oil from water. It is also applied as a component in paint formulations or as a viscosifier for oil-based drilling fluids.

It can be used in polymer chemistry as a nucleating agent.

What is Organoclay?

How Organoclay is Used and the Benefits

Organoclay is a naturally occurring material that is commonly used in water treatment. Organoclays are well known for their high removal rate of oils and other hydrophobic compounds in water. The media is a naturally occurring mineral (commonly zeolite, bentonite clay, or a smectite mineral) which is chemically alternated to create a unique surface on the mineral. Camp Shinning’s organoclay is a zeolite based organoclay which has does not swell upon exposure to water.

How does Organoclay Work?

Camp Shinning alters zeolite with a surfactant bilayer that enhances the media’s ability to remove pollutants. The surfactant bilayer is created when a quaternary amine or surfactants is added to the mineral to modify the surface commonly referred to as surface-modified-zeolites (SMZ). By modifying the surface, we create a strong affinity with either cations (positively charged ions, i.e. dissolved metals) or anions (negatively charged ions, i.e. phosphate, nitrate). The bilayer that contains hydrophobic chains will capture non-polar organics such as benzene.

Illustration of How Organoclay Works

How is Organoclay Used?

Organoclays are used in various industries including remediation, water treatment, soil treatment, in polymer chemistry, in paints as a thickening agent, grease, inks, oil drilling fluids, rheological products, cosmetics, and many more commercial and industrial applications.

What are the Benefits of Using Organoclay?

Versatile installation — Load the media in standalone units, post-treatment, or pre-treatment units. To learn more about these systems on our Water Filtration Systems Page.

Cost Savings — Organoclay is an economical alternative to other treatment technologies such as resins or Granular Activated Carbon (GAC).

Increase Efficiency — Organoclays will decrease the loading on other treatment systems and increase the life of capital equipment.

Storage — Organoclays have a long shelf life and require dry ambient environments.

Handling — Organoclays are safe and easy to use.

How is Organoclay Used in Water Treatment?

CP-200 Liquid Phase, Pure Organoclay

Organoclays are used in industrial and commercial water treatment such as:

Condensate Treatment Systems: Condensate treatment is part of every power plant, refinery, chemical manufacturer, and any facility that uses stream. Typically, the condensate is recycled back into the boiler feed water where it is routed through boiler tubes for continued boiler use.

Recycling condensate is a common practice which decreases the amount of water disposal but can be costly if not designed correctly. By not treating the condensate that goes back into your boiler feed water you are introducing high concentrations of pollutants that came off leaking pumps, valves, and piping to your boiler tubes. When these pollutants (hydrocarbons and minerals) are introduced to the boiler tubes they will deposit on the surface which will reduce the heat transfer and overall reducing the boiler efficiency.

Camp Shinning’s works with condensate treatment manufacturers and users on providing a specialty blend of filter material for treating the pollutants that are commonly found in condensate. The condensate treatment blend of filter media uses organoclay and activated carbon to trap the contaminates in its’ pore structure.

Process Water Reuse Systems: Leaking pipes, valves, vessels, or inefficient processes can leave process water tainted with low concentrations of pollutants. These pollutants over time can lead to hazardous water that needs to be hauled off site for treatment. A common use of organoclay is to treat process water onsite in a vessel to reuse the water instead of discharge it or accumulate it and haul it off-site as hazardous waste. Tainted water can lead to downtime of capital equipment and hefty bills for hazardous waste disposal. Examples of process water treatment systems might include the wash water that is used in a metal plating facility, or batch water that has low concentrations of acrylic paint thinner. Simply installing a vessel of organoclay in a process water loop can significantly reduce planned and unplanned downtime.

Organoclays are used in remediation projects such as:

Groundwater Treatment: Pump-and-Treat Systems are typically implemented when groundwater is contaminated. For pump-and-treat systems, the water is typically pumped out of the ground into a large vessel. The large vessel or series of vessels is filled with a filter media (i.e. granular activated carbon, organoclay, resin) that removes any pollutants of concern such as heavy metals or oil. The water is then put back into the ground. Pump-and-treat are cost-effective designs for treating water if you select the most appropriate filter media to target your pollutants.

Sediment Capping: Capping, also known as permeable reactive barrier , is an in-situ remediation technology that typically follows dredging operations. Organoclay is used in sediment capping due to its’ ability to isolate contaminated sediment from a surrounding aquafer or aquatic system. It is a cost-effective material for capping as it has strong affinity for removing high molecular weight polycyclic aromatic hydrocarbons (PAHs), polychlorinated biphenyls (PCBs), and heavy metals.

Stormwater Treatment: Organoclay is used to improve water quality in stormwater runoff. Typically, pollutants found in stormwater are monitored by state regulators to ensure we have clean lakes, rivers, oceans and wetlands

Learn more about how Organoclay is used in water treatment.

Rheological Additive for Solvent Base System

CP-200 is an organic derivative of bentonite clay act as Rheological additive in low to high polarity systems. Such as Ketones, Glycol, Alcohol, Esters and Ethers, includes Polar System with some Aromatic Solvents.

Properties & Markets

Paints & Coatings : A small addition of ORGANOCLAY can greatly enhance the rheological properties of the paint system. These properties prevent pigment settling and sagging on vertical surface to ensure the proper thickness of the coating is applied. They also ensure good leveling for the removal of brush marks.

Storage stability is guaranteed even with high temperatures. ORGANOCLAY confer water resistance and structure reinforcement with no adverse effect on adhesion and solvent relese. Gloss is minimally affected due to the low levels of addition. ALL ORGANOCLAY are used widely in a vast range of solvent based paint systems

Architectural Paints : Undercoats, Primers, Semi-Gloss, Gloss and Wood Stains

Industrial Coatings : Air Drying, Stoving Enamels, Epoxies, Esters, Urethanes, Vinyls, Acrylics, Anti-Corrosive, Automotive, Bitumionous, Coil, Road Marking, Underbody Car Coatings, Nitro Cellulose and Chlorinated Rubber.

Printing Inks : With the correct ORGANOCLAY, is possible to adjust the consistency of printing inks to the desired values, avoiding pigment sedimentation, providing good color distribution obtaining desired film thickness, reduction in misting, control of track, water pick up and dot gain control. ORGANOCLAY are used in much letterpress, lithographic and offset ink.

Lubricating Greases : Thickening lubricating oils with ORGANOCLAY can produce specialty high temperature resistant lubricating greases. ORGANOCLAY also gives good working stability and water resistance to the greases. Such greases are typically used for lubrication in foundries, mills and on high speed conveyors. Other greases can be manufactured for other industries such as agriculture, aviation, automotive and mining.

Cosmetics : The performance of cosmetics is enhanced by the use of ORGANOCLAY and they allow good colour retention and coverage for nail lacquers, lipsticks and eye shadows. They have been tested to be non-irritant for both skin and eye contact.

Food Contact Applications : ORGANOCLAY are used as thixotropic agents in coatings that come into contact with food. They are also used as fillers in plastic food containers. They are acceptable under current EEC legislation on food contact additives.

Drilling Fluids : ORGANOCLAY are used extensively in drilling fluids throughout the world. They are used to suspend the heavy sealing agents, normally barytes and carry the cuttings back to the surface. They also play an important part in lubricating the drill. ORGANOCLAY can also be used as fracfluids, where the gelling ability of them is used to seal rock fractures in the bore hole.

Nanofiller for Plastic : Highly purified organoclays because of their particle size and chemical structure have the unique ability to be able to function in a wide range of monomers and polymers. The resulting properties of polymers, compounded with these unique organoclays include :

Increased Modular Strength without Sacrificing Impact Resistance
Improved Gas Barrier Properties
Increased Solvent and Heat Resistance
Improved Fire Retarding Properties

The combination of these improved properties, convenient processing and relative low costs, makes nano composites a tremendous commercial opportunity as they are superior alternatives to the current fillers used in polymer systems.

Hectorite and Bentonite based organoclay grades

Optimum activation of organoclays by ideal organoclay for highest effectivity

Correct activation for highest efficiency

❖ Optimum shear applied for proper delamination

❖ Correct use of polar activator for conventional grades

❖ Right order of addition for best processing result

organoclays can be optimized by improved process parameters including a review of the process temperature.

However, temperature control during organoclay dispersion in solvent based systems is not as important as with e.g.

organic thixotropes.

Various methods used in manufacturing formulations and procedures sometimes suffer in efficiency when order of addition and mixing conditions are less than optimum.Further, the effects of solvent resin temperature on process development and final results will be discussed.

organoclay materials are based on either

bentonite or Hectorite, both minerals from the smectite group. They consist of microfine platelet stacks that, due to their mineralogical structure, expand in water in their natural form. In order to make them compatible with non-aqueous media such as organic solvents, however, it is necessary to modify the surface of their silicate plates with quaternary ammonium compounds.

The choice of this modification and processing conditions also plays an important role in the practical applicability and performance capabilities of the finished end systems. The resulting organoclay will be dried and milled to achieve a powdered material.

To be most rheologically effective, the size of the individual platelets and the total combined edge length following their successful activation is decisive.

the Hectorite platelets are significantly smaller than the bentonite ones, the resulting edge length per gram of silicate in the Hectorite is much larger.

This makes Hectorite additives able to build up a much denser and more rheologically effective network. In order to be activated, organoclays must first be exposed to high shear forces over a defined swelling period.

What is organophilic clay?

Organophilic clay is a type of clay that has been chemically modified to be compatible with organic solvents and non-aqueous systems. It’s a viscosifier and gelling agent used in various applications, including drilling fluids, paints, and cosmetics.

[Drilling Fluids]

Clay minerals whose surfaces have been coated with a chemical to make them oil-dispersible. Bentonite and hectorite (plate-like clays) and attapulgite and sepiolite (rod-shaped clays) are treated with oil-wetting agents during manufacturing and are used as oil-mud additives. Quaternary fatty-acid amine is applied to the clay. Amine may be applied to dry clay during grinding or it can be applied to clay dispersed in water. The latter process is much more expensive, requiring filtering, drying and other manufacturing steps. Organophilic bentonite and hectorite, “bentones,” are used in oil muds to build rheology for cuttings lifting and solids suspension. They also contribute to low-permeability filter cake. Organophilic attapulgite and sepiolite are used in oil muds strictly to build gel structure, which may not be long lasting due to shear degradation as the mud is pumped through the bit.

CP-2 organophilic clay is a viscosifier and gelling agent used in VERSA oil-based and NOVA synthetic-based systems. This amine-treated bentonite is used to increase carrying capacity and suspension properties, providing support for weighting agents and improved cuttings removal. CP-2 viscosifier also aids in filtercake formation and filtration control.

Applications

CP-2 viscosifier is proven effective in drilling, coring, workover and completion fluids. The product is also effective in specialty applications such as casing packs, packer fluids and spotting fluids. Good agitation and sufficient shear are required to develop viscosity when using CP-2 viscosifier to build fresh mud.

Typical concentrations range from 2 to 10 lbm/bbl [5.7 to 28.5 kg/m3] for most drilling fluid applications, depending on the base fluid and system requirements. Mineral oils generally require higher concentrations than diesel oils. CP-2 viscosifier will not fully yield by the shear and temperature exposure in a mixing plant or mud pit. Care should be taken not to overtreat with CP-2 viscosifier until the fluid has actually circulated through the well. For system maintenance, CP-2 viscosifier should be added as needed to maintain the flow properties and gel strengths in the desired ranges. Specialty applications such as packer fluids and casing packs typically use concentrations in the 10 to 15 lbm/ bbl [28.5 to 43 kg/m3] range.

Advantages

Provides gel structure and viscosity for the suspension of weight materials

Increases viscosity for improved hole-cleaning capacity

Improves filter-cake quality and filtration characteristics

Effective gelling agent in casing packs and packer fluids

Toxicity and handling

Bioassay information is available upon request. Handle as an industrial chemical, wearing protective equipment and observing the precautions described in the safety data sheet.

Packaging and storage

CP-2 viscosifier is packaged in 50-lb [22.7-kg] multiwall paper sacks. Store in a dry, well-ventilated area. Keep container closed. Store away from incompatibles. Follow safe warehousing practices regarding palletizing, banding, shrink-wrapping, and stacking.

So far I’ve had no luck finding organophilic clays like CP series in China apart from one drilling company that wanted upwards of $200 for a 25Kg bag of oil drilling product. I did a trawl of online patents to see how hard the stuff is to make.

Both these chemicals are used in fabric softeners and are available as industrial chemicals. Buying the bentonite and the surfactants above might be a bit more common compared to bentone in countries that don’t drill for oil much.

Is it going to be easy to buy these industrial surfactants than Bentone?, probably is if you can find an industrial chemical supplier who’ll sell you less than a 200 litre drum.

Organophilic Clay

Organophilic clay is a wet process improved viscosifier and gelling additive, derived from a naturally occurring clay mineral.

Feature

Organophilic clay has good performance efficiency in diesel, mineral oil and synthetic Oil; It can effectively suspends weighting materials and other solids, maintains suspension over a wide temperature range.

Application

Organophilic clay is a self-activating gallant offering rapid yield development, high gel strengths, and increased efficiency.

Sorbitan Monostearate

What Is Sorbitan Monostearate?

Derived from the reaction between sorbitol and stearic acid, sorbitan monostearate, also known as Span 60, holds the European food additive number E491. Its primary role as an emulsifier is pivotal, ensuring the harmonious mixing of water and oils, a fundamental process in countless applications. This is formed by combining sorbitol and stearic acid. Often referred to as a synthetic wax due to its unique properties, it serves a multitude of purposes that range from medicinal to culinary.

Chemically characterized as a non-ionic surfactant, this compound possesses emulsifying, dispersing, and wetting capabilities. Its origin lies in the partial esterification of stearic acid with sorbitol and its mono- and dianhydrides. This synthesis gives rise to a compound with remarkable versatility, adaptable to various industries.

Sorbitan monostearate takes on the role of a diluent in color additive mixtures. It can also shine as an emulsifier that lends its efficacy to an array of food products. One of its most prevalent application of sorbitan monostearate in yeast, where it contributes to texture enhancement and shelf-life extension. As a synthetic ester, it plays a pivotal role in the creation of food and healthcare products, functioning as a surfactant with impressive emulsifying properties. Its hydrophobic, nonionic nature makes it an ideal candidate for roles such as emulsification, stabilization, and defoaming in various products. Notably, it aids in binding flavors, regulating viscosity, and safeguarding components against heat-induced degradation.

Names and Identifiers

One common synonym is Span 60. Drewsorb 60 is another alternate name because of its association with the sorbitol derivative and stearic acid. Montane 60 serves as a synonym that underscores its role and chemical composition. Sorbitan monostearate can be referred to as stearic acid, monoester with sorbitan or polyoxyethylene sorbitan monostearate, providing a precise description of its composition and structure.

The chemical formula of sorbitan monostearate, C24H46O6, is a concise representation of the elemental composition and arrangement within the compound. This formula elucidates the specific atoms that constitute sorbitan monostearate, namely 24 carbon (C) atoms, 46 hydrogen (H) atoms, and 6 oxygen (O) atoms. Central to the identification of sorbitan monostearate is its Chemical Abstracts Service (CAS) number, which is 1338-41-6. Sorbitan Monostearate CAS number acts as a digital fingerprint, ensuring accuracy and precision in its classification and usage.

If you are asking what is sorbitan monostearate E number, this is E491. This classification is part of the European food additive numbering system. E491 signifies its role as an additive in the realm of thickeners, indicating its capability to influence the viscosity and texture of various products.

Chemical and Physical Properties

The molecular weight of sorbitan monostearate stands at 430.6 g/mol, encapsulating the sum of its atomic masses. This numerical value reflects the compound’s complexity and provides insight into its overall size and structure. Presenting itself as a dry powder, sorbitan monostearate manifests as a white to tan waxy solid, establishing its distinct physical form.

An unmistakable trait of sorbitan monostearate is its slight odor, which although faint, contributes to its sensory profile. While it may not be the primary feature, this olfactory aspect can influence product experiences, particularly in formulations where aromas play a role. Additionally, its bland taste ensures that it remains neutral in flavor, allowing it to harmonize seamlessly with a range of applications.

Sorbitan monostearate’s melting point, ranging between 49-65 °C, dictates its transition from solid to liquid under specific conditions. This characteristic is pivotal in applications where controlled temperature changes are involved. In terms of solubility, the compound dissolves in ethanol, isopropanol, mineral oil, and vegetable oil, highlighting its affinity for various solvents. However, its insolubility in water and propylene glycol sets the stage for its specific applications that require separation from aqueous solutions.

With a density of 1.0 @ 25 °C, sorbitan monostearate’s mass per unit volume is established. This property has implications for its incorporation into formulations where density considerations are crucial. On the other hand, when subjected to decomposition through heat, the compound emits acrid smoke and irritating fumes. This aspect underscores the need for proper handling and awareness of its response to elevated temperatures.

How Is Sorbitan Monostearate Made?

Sorbitan monostearate emerges through a precise process known as esterification. This method involves the harmonious fusion of sorbitol, a derivative of sugar alcohol, with stearic acid, a saturated fatty acid. As these two components react, new chemical bonds form, leading to the creation of sorbitan monostearate. This synthesis showcases the art of controlled chemical reactions, where the amalgamation of sorbitol and stearic acid transforms into a compound with versatile applications.

What is sorbitan monostearate synthesis? It begins with the careful selection of top-quality sorbitol and stearic acid. These raw materials are subjected to controlled conditions, often with the aid of catalysts, to facilitate the reaction. The reaction leads to the formation of ester bonds, intricately connecting the molecules and resulting in the final product. This manufacturing process unveils the intricate chemistry behind sorbitan monostearate’s creation, emphasizing its importance in delivering functionalities that span across food, cosmetics, pharmaceuticals, and more.

Sorbitol

Sorbitol belongs to the category of sugar alcohols, a group of compounds that possess both alcohol and carbohydrate characteristics. It’s derived from glucose, a simple sugar, through a process known as hydrogenation. This structural transformation results in a compound with a sweet taste, albeit not as intense as that of regular sugars. Classified as a type of carbohydrate, sorbitol shares some traits with sugars but exhibits distinct properties due to its altered molecular structure.

In the context of sorbitan monostearate, sorbitol’s role as a key component is underscored by its contribution to the formation of the compound. Through esterification, a chemical reaction involving the interaction of sorbitol with stearic acid, sorbitol becomes an integral part of the resulting synthetic ester – sorbitan monostearate. This process involves the rearrangement of molecular bonds, leading to the creation of a compound that combines the properties of its constituent parts.

Stearic Acid

Stearic acid is a long-chain saturated fatty acid that occurs naturally in an array of animal and plant fats. It is most commonly sourced from coconut oil or palm oil, both rich sources of this fatty acid. Its presence in these natural fats underscores its relevance in both biological systems and industrial applications.

With an 18-carbon chain, stearic acid is classified as a saturated fatty acid. This structural characteristic is crucial, as it signifies that all carbon-carbon bonds within the chain are single bonds, making it “saturated” with hydrogen atoms. This structural aspect accounts for stearic acid’s physical properties and behavior within compounds like sorbitan monostearate.

Uses

Sorbitan monostearate in yeast acts as an emulsifier and stabilizer that improves the texture and consistency of yeast-based products. Similarly, in the creation of ice cream, sorbitan monostearate enhances the creaminess and stability of the mixture, resulting in a smoother and more enjoyable dessert. The compound’s attributes also extend to margarine and whipping cream, where its emulsifying properties ensure even distribution of ingredients and contribute to the desired texture.

The applications of monostearate sorbitan extend to the realm of baking as well. In the production of bread and cake, it acts as an emulsifier that aids in creating a homogenous mixture, leading to improved volume and texture in the final baked goods. The compound’s utility doesn’t stop there; even in the world of chocolate production, monostearate sorbitan plays a role. It serves as an emulsifier in chocolate formulations, ensuring the smooth and consistent blending of ingredients while preventing separation during storage.

Is Sorbitan Monostearate Safe to Eat?

For most individuals, monostearate sorbitan exhibits almost no side effects when consumed within established limits. It’s worth noting that adverse reactions are exceedingly rare. As an emulsifier and stabilizer, it is primarily used in small quantities, contributing to the overall safety of products.

Sorbitan monostearate’s safety has been scrutinized by regulatory agencies around the world. Authorities such as the U.S. Food and Drug Administration (FDA) and the European Food Safety Authority (EFSA) have assessed its use and granted it Generally Recognized as Safe (GRAS) status and approval as a food additive, respectively.

Is Sorbitan Monostearate Vegan?

The question of whether monostearate sorbitan is vegan revolves around the origin of its components, particularly sorbitol and stearic acid. Sorbitol, a derivative of corn, is inherently vegan, setting a solid foundation for the compound’s potential vegan status. However, the determination of whether sorbitan monostearate is truly vegan hinges on the source of stearic acid utilized during its production.

Stearic acid, as a component of sorbitan monostearate, plays a crucial role in shaping the compound’s nature. Its origin is the determining factor in the compound’s vegan classification. If the stearic acid is sourced from plant-derived oils, such as coconut or palm oil, the resulting sorbitan monostearate remains vegan-friendly. Plant-based stearic acid aligns with the ethos of veganism, as it avoids animal-derived sources.

Sorbitan Monostearate is a good emulsifier which the CAS number is 1338-41-6 . Sorbitan Monolaurate could use for lubricant and food and other industrial sector.We sincerely look forward to your cooperation and provide you with better product quality and services.