remains the largest single demand driver, accounting for approximately ‌65% of total global diatomite consumption‌. In this segment, calcined and flux-calcined diatomite products are highly valued for their ‌unique porous microstructure, filtration accuracy down to 0.1μm level, and excellent chemical inertness‌. They serve as core filter aids for clarifying beer, wine, fruit juice and other beverages, as well as for precision filtration of industrial oils such as lubricants and transformer oils, becoming a cost-effective and safe alternative to synthetic filter media. The continuous expansion of the global food and beverage processing industry, coupled with stricter food safety regulations in the Asia-Pacific, North American and European markets, has structurally increased the penetration rate of high-purity food-grade diatomite filtration solutions.

diatomite-based adsorbents are rapidly replacing traditional clay and activated carbon alternatives in many scenarios. As the global industrial wastewater treatment market exceeds ‌380 billion U.S. dollars in 2026‌, diatomite products are seizing a growing market share, thanks to their ‌heavy metal ion adsorption capacity, excellent organic pollutant interception performance, and natural non-toxic properties‌. Regulatory requirements including updated drinking water treatment standards and industrial wastewater discharge limits are prompting manufacturing enterprises, municipal water plants and petrochemical facilities to adopt natural mineral-based water treatment media. Leading processors now supply ‌surface-modified functional diatomite adsorbents‌ specially developed for targeted removal of micro-pollutants in industrial wastewater, and this segment is growing at an estimated ‌6.8% CAGR through 2032‌.

diatomite wall materials have occupied an irreplaceable niche market. With its ‌natural microporous structure and strong humidity regulation performance‌, diatomite powder provides an ideal balance of air purification and indoor humidity adjustment, making it the preferred raw material for producing diatom ooze interior wall coatings, thermal insulation bricks and sound-absorbing panels. These products can effectively absorb formaldehyde, regulate indoor air humidity, and do not contain any harmful chemical additives. The rapid growth of the global healthy home decoration market and the zero-carbon building construction boom are generating a new wave of demand for high-purity, impurity-free diatomite building material products.

diatomite has become one of the most versatile natural silicon-based functional materials in the world. The global ‌industrial catalyst carrier market, where high-purity refined diatomite is a core raw material, was valued at approximately 2.3 billion U.S. dollars in 2025 and is projected to reach 3.7 billion U.S. dollars by 2035‌. This growth is driven by the expanding application of diatomite-supported vanadium catalysts in the chemical industry, as well as its widespread use as a functional reinforcing filler in plastics, rubber, coatings and papermaking fields. At the same time, diatomite-derived ‌soil conditioners‌ are benefiting from the global sustainable agriculture trend, with porous mineral soil amendments being increasingly used to improve soil aeration and water retention in horticultural and crop planting scenarios. Advanced processing enterprises are now deploying ‌integrated purification and grading production lines‌, which sequentially remove mineral impurities, adjust particle size distribution and modify surface properties from raw diatomite ore, maximizing resource utilization efficiency and approaching ‌near-zero-waste production‌.

diatomite-derived high-performance porous materials are gaining extensive attention. Through acid leaching purification and high-temperature activation processes, diatomite products can achieve a ‌specific surface area of more than 200 m²/g‌, with highly developed uniform pore structure, showing great application potential in lithium battery separator coating, new energy electrode material carriers and carbon dioxide adsorption and separation scenarios.