AMIGEL rheology guide: Sclerotium Gum in gels emulsions and suspensions

A comprehensive technical formulation guide dedicated to managing rheology in cosmetics using the natural polysaccharide AMIGEL (Sclerotium Gum). This article explores the physical mechanisms of polymer hydration and network formation for structuring clear gels, light emulsions, and particle-suspending fluids. It covers pre-dispersion in polyols, electrolyte stability, shear rate handling, incompatibility limits, thermal limits, and precise pH controls. Features three complete DIY recipes with step-by-step compounding instructions and cold storage standards.

Natpure Film AP: natural film-forming technology for skin color cosmetics and hair

A comprehensive technical formulation guide dedicated to utilizing the bio-based film former Natpure Film AP (derived from sugar cane) in color cosmetics and hair care. This article breaks down the physical mechanics of flexible film creation, moisture resistance, and pigment adhesion enhancement. It covers aqueous dissolution protocols, compatibility with natural polymers and gums, thermal boundaries, and precise pH controls. Features three complete DIY recipes with step-by-step compounding instructions and storage standards.

ViableCare LipoCare 8: integrating a liposomal ceramide complex into barrier-care formulas

A comprehensive technical formulation guide to designing skin barrier restoration creams and liposomal fluids using ViableCare LipoCare 8. This article breaks down the physiological mechanism of ceramide integration into stratum corneum lipids to stop transepidermal water loss. It details exact processing protocols to protect liposomal structures, low-shear cooling phase entry below thirty degrees Celsius, emulsifier compatibility, and pH boundaries. Features three complete DIY recipes with step-by-step compounding instructions and cold storage standards.

Magnesium Oxide 25 kg

Magnesium Oxide mineral raw material for powder systems and aqueous processing environments

Magnesium Oxide is an inorganic mineral compound used as a functional component in a wide range of formulation systems. It is applied in food processing, nutraceutical products, pharmaceutical preparations, cosmetic formulations and industrial processes where a stable mineral ingredient with predictable behavior is required. Its versatility allows it to be incorporated into both dry blends and water-based systems.

From a formulation perspective, Magnesium Oxide belongs to basic oxides and is capable of interacting with acidic components within a system. This makes it suitable for applications where control of system parameters and stabilization of formulation conditions are necessary. It is commonly used as a mineral component that influences the overall behavior and structural characteristics of the formulation.

In food-related applications, Magnesium Oxide is included in dry blends and specialized compositions designed for functional purposes. In nutraceutical systems, it is used in powder and capsule formats as a mineral ingredient. In pharmaceutical formulations, it is applied in tablet and powder systems. In cosmetic products, it is used in powders, dry cleansers and combined formulations. In industrial applications, it is used in processes where mineral stabilization or controlled chemical interaction is required.

Functionally, Magnesium Oxide acts as a regulator within the system and as a structural component in powder formulations. It influences ingredient interaction, supports the formation of stable blends and contributes to maintaining formulation consistency. In aqueous systems, it can modify system parameters due to its chemical properties.

In formulation practice, Magnesium Oxide is introduced into the dry phase or dispersed into liquids depending on the system design. It is compatible with both mineral and organic components, although its reactivity should be considered during formulation development. Under standard processing conditions, it remains stable.

Usage level is defined by formulation requirements and adjusted by the formulator based on the intended application.

Example formulation: Mineral cleansing powder system
Magnesium Oxide 20 g
Kaolin 30 g
Corn starch 20 g
Rice powder 15 g
Mild powdered surfactant 10 g
Fragrance additive 3 g
Dry preservative 2 g

Process: all dry components are sieved and blended until a uniform mixture is achieved. The fragrance additive is then incorporated and mixed again. The final powder is stabilized and packed in a dry container.

Example formulation: Aqueous suspension with mineral component
Purified water 80 ml
Magnesium Oxide 5 g
Glycerin 5 g
Xanthan gum 0.5 g
Panthenol 3 g
Preservative 1 g
pH adjuster 5 g

Process: xanthan gum is pre-dispersed in glycerin and added to water under mixing to form a gel-like structure. Magnesium Oxide is then incorporated and evenly dispersed. Panthenol and preservative are added, and the system is mixed until uniform and stable.

Magnesium Oxide is used as a versatile mineral raw material across multiple industries. It supports formulation stability, contributes to system control and enables the development of both powder and liquid formulations with predictable performance.

INCI	Magnesium Oxide
Other
Application	mineral powder, shampoos, dry deodorants
Att brand	Germany
Color product	appropriate
Descriptio smell	absent
Features	All information presented on the site is for reference only
Minimum count	25
Name	Magnesium Oxide 25 kg
Packaging	container for transportation
Packing	from 25 kg
Solubility	water, acid, alkali; insoluble in alcohols
View	powder