Product Information

Potassium Cocoate

Potassium Cocoate (CAS Number: 61789-30-8) Supplier in Europe

Potassium cocoate is a natural soap surfactant derived from the fatty acids present in coconut oil. When coconut oil undergoes a saponification process, which involves a reaction with potassium hydroxide, potassium cocoate is produced.

This compound is known for its effective cleaning properties and is utilized extensively in personal care and household cleaning products. Because it is derived from renewable resources and is biodegradable, potassium cocoate is regarded as an environmentally friendly alternative to synthetic surfactants.

In personal care products such as soaps, shampoos, and body washes, potassium cocoate acts as a gentle cleanser that removes dirt and oil without stripping the skin of its natural moisture.

Its foaming action is moderate, which makes it suitable for products aimed at individuals with sensitive skin. Moreover, it contributes to the creation of a smooth, creamy lather that enhances the user experience.

Potassium cocoate also finds its use in various household cleaning products due to its grease-cutting capabilities.

It is included in formulations for dishwashing liquids, laundry detergents, and multi-surface cleaners.

Manufacturers often blend it with other natural ingredients to enhance its cleaning power while maintaining a product’s eco-friendly profile. This aligns with the growing consumer demand for sustainable and non-toxic cleaning solutions.

Chemical Composition

Potassium Cocoate is primarily composed of potassium salt of fatty acids derived from coconut oil. This section will focus on its fatty acid composition and the saponification process by which it is made.

Fatty Acid Profile

Potassium Cocoate contains a mixture of fatty acids, predominantly:

  • Lauric acid (C12): Around 48%
  • Myristic acid (C14): About 18%
  • Caprylic acid (C8) and Capric acid (C10): Roughly 8% for each
  • Palmitic acid (C16) and Stearic acid (C18): Both contribute to about 8% each
  • Oleic acid (C18:1): Approximately 6%
  • Linoleic acid (C18:2): Less than 2%

Saponification Process

The saponification process involves a chemical reaction between coconut oil fatty acids and potassium hydroxide (KOH). The result is Potassium Cocoate and glycerol.

This reaction can be represented simply as:

  • Coconut Oil Fatty Acids + KOH → Potassium Cocoate + Glycerol

The process ensures the complete conversion of triglycerides from coconut oil into their potassium salt forms and glycerol.

Physical Properties

This section explores the characteristics of Potassium Cocoate that define its physical state, including its appearance, solubility in different mediums, and boiling point.


Potassium Cocoate is typically observed as a clear to slightly yellow liquid.

It may also be found in the form of a viscous gel, depending on its concentration and the temperature at which it is stored.


  • Water: Potassium Cocoate is highly soluble in water, facilitating its use in various liquid cleansers and personal care products.
  • Organic solvents: It exhibits varying degrees of solubility in certain organic solvents.

Boiling Point

The boiling point of Potassium Cocoate can be influenced by its concentration and the presence of other components in a mixture.

It generally displays a boiling point at around 220°C (428°F) when in a pure state. However, in soap formulations, the boiling point may vary.


Potassium cocoate is produced through the saponification process involving coconut oil and potassium hydroxide. This section details the methods and standards used in its manufacture.

Industrial Production

Industrial production of potassium cocoate involves heating coconut oil and mixing it with a solution of potassium hydroxide (KOH).

The blend is then stirred continuously until saponification occurs. The specific steps of this process are:

  1. Preparation: Gathering high-quality coconut oil as the primary feedstock.
  2. Mixing: Combining the coconut oil with KOH, which must be accurately measured.
  3. Saponification: The reaction between the oil and KOH, monitored closely to achieve complete conversion.
  4. Settling: Allowing time for the mixture to settle and separate.
  5. Purification: Removing glycerin and other impurities to isolate the potassium cocoate.

This process is highly automated to ensure consistency and efficiency.

Quality Control

Stringent quality control measures are implemented to guarantee the purity and performance of potassium cocoate. These include:

  • Raw material inspection: Ensuring the coconut oil and KOH meet preset standards.
  • In-process monitoring: Real-time checks throughout manufacturing for consistent saponification.
  • Product testing: Comprehensive analysis of the final product to verify its composition and reactive properties, often including:
    Test Parameter Evaluation Method
    pH Level pH Meter
    Fatty Acid Content Titration
    Moisture Content Karl Fischer Titration

Products that do not meet the established criteria are rejected or reprocessed.


Potassium Cocoate is a versatile ingredient derived from the fatty acids present in coconut oil. It serves as a biodegradable surfactant and cleansing agent, commonly utilized in various industries, notably in the production of soap, personal care items, and cleaning products.

Soap Making

In soap manufacturing, Potassium Cocoate is a key ingredient due to its ability to create a rich lather.

It imparts moisturizing properties to the soap, which benefits the skin by providing a gentle cleansing experience.

  • Lather Quality: Exhibits excellent foaming capabilities.
  • Moisturizing Effect: Helps to keep skin hydrated.

Personal Care Products

The compound is also prominent in personal care products for its skin-friendly nature.

    • Shampoos and Body Washes: Enhances cleaning efficacy without stripping natural oils.
    • Shaving Creams: Ensures a smooth razor glide and reduces the risk of skin irritation.

Cleaning Agents

As a cleaning agent, Potassium Cocoate finds its use in the formulation of household and industrial cleaners.

    • Biodegradable Nature: A safer alternative to synthetic surfactants.
    • Efficacy: Effectively cuts through grease and dirt, leaving surfaces clean.