In home decoration and space renovation, the choice of wall coating is directly related to indoor air quality and family health.

In the current rapid development of green building materials, cellulose based decorative materials have become a popular choice in the fields of home and public decoration due to their natural environmental protection and innovative texture advantages. Compared with traditional materials such as wood, stone, and ceramic tiles, its appearance texture presents a unique naturalness, delicacy, and plasticity, forming distinct differences in visual and tactile aspects.

In the ceramic tile adhesive formula system, cellulose ether (mainly HPMC hydroxypropyl methyl cellulose) is the core additive that determines the construction performance and bonding quality. Through multiple effects such as water retention, thickening, film formation, and interface modification, it simultaneously achieves two key performance optimizations: improved bonding strength and extended opening time, providing strong bonding and sufficient operating window for ceramic tile paving.

With the increasingly strict environmental regulations, honeycomb ceramics, as the core material in the fields of automobile exhaust purification and industrial denitrification, have continuously increased requirements for their thinning, high pore density, and structural uniformity.

Cellulose ether is a water-soluble polymer compound made by etherification modification of natural cellulose. With its excellent thickening, water retention, film-forming, dispersion, stability and other characteristics, it has become an indispensable key additive in the coating industry.

Hydroxypropyl methyl cellulose ether (HPMC) is an essential core functional additive in putty powder formulations, belonging to non-ionic cellulose ether. With its excellent water solubility, thickening, and water retention properties, it can improve the construction performance, bonding performance, and storage stability of putty powder, and is known as the "soul additive" of putty powder.

Hydroxypropyl methylcellulose (HPMC) is a common functional additive in shampoo, which fundamentally improves the combing performance of hair and the smooth touch after use through various physical and chemical interactions.

Cellulose ether plays an indispensable role as a multifunctional additive in daily chemical products. With its unique physical and chemical properties, it can significantly improve the appearance, skin feel, and storage stability of products. Whether it's shampoo, shower gel, facial cleanser, laundry detergent, or skincare products, cellulose ether can be seen everywhere, bringing even better performance to these daily necessities.

Cellulose ether plays the role of a "key process performance improver" in the ceramic industry. Through its unique rheological properties and physicochemical effects, it improves the efficiency, yield, and product quality of ceramic production from multiple core links. Its main functions and applications are as follows:

HPMC (Hydroxypropyl Methyl Cellulose) is a commonly used water-soluble cellulose ether additive in latex paints for decorative materials. It is mainly used as a thickener, water retaining agent, film-forming agent, and rheological modifier, which can significantly improve the workability, stability, and film-forming quality of latex paints.

Cellulose ether is an essential core functional additive in self leveling mortar. It is not an aggregate or cementitious material, but can determine whether the mortar can achieve "self leveling" and ensure engineering quality from multiple dimensions such as workability, mechanical properties, and durability. Its key role is mainly reflected in the following six aspects.

HPMC (Hydroxypropyl Methyl Cellulose) is a key water-based functional additive in latex paint for decorative materials. It is not a film-forming substance, but can optimize the performance of latex paint throughout the entire process from production, construction to film formation. Its core functions are concentrated in four aspects: water retention, thickening, rheological control, and interface bonding. The specific improved performance and principle of action are as follows: