The Art of Layering
The mica variety that does not contain iron is colorless in flakes, and the higher the iron content, the darker the color, and the more polychromatic and absorbable it is. According to the different chemical composition and optical characteristics, mica group minerals can be divided into Muscovite subgroup, biotite-phlogopite subgroup and lemica subgroup. The common mica are biotite, phlogopite, Muscovite and so on.
Layer upon layer of mica
Người tiêu dùng hiện đại ngày nay không chỉ quan tâm đến vẻ ngoài mà còn chú trọng đến sự an toàn và lành tính của sản phẩm. Mica Beauty Cosmetics đã đáp ứng được nhu cầu này với bột shimmer của mình. Chắc chắn rằng việc lựa chọn Mica Beauty sẽ là quyết định đúng đắn cho những ai yêu thích cái đẹp và sự an toàn.
Phlogopite mica, a form of biotite, is a fascinating mineral that captivates scientists, geologists, and collectors alike. Renowned for its unique properties and aesthetic appeal, phlogopite belongs to the mica group of silicate minerals. Its composition primarily includes potassium, magnesium, and iron, coupled with a distinctive layered structure that contributes to its remarkable characteristics.
The Perfect Pairing
Later, with the development of science and technology, people gradually realized that mica minerals have high insulation, high temperature resistance, strong acid and alkali resistance, and mica also began to enter building materials, fire, plastics, paper, rubber, pearlite pigments and other industries. These are mainly Muscovite and phlogopite.
Take pearlescent pigments as an example, pearlescent pigments are a class of pigments with pearl luster, which are deposited on the substrate (generally natural mica, synthetic mica, glass sheet and other sheet-like materials) above a layer or alternately deposited multiple layers of metal oxides or non-metallic oxides and formed a flat sandwich body with a structure similar to sandwich. Due to the difference in refractive index between the substrate and the oxide deposited on its surface and each oxide, when the light shines on the surface of the pearlescent pigment, the incident light will be refracted and reflected at the interface of each layer of the pearlescent pigment, and the color of the pearlescent pigment that people see is the result of the superposition of light after multiple refractions and reflections of the light, that is, the interference phenomenon of light.
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