Adhesives and Sealants
DA-ETA is mainly used as a crosslinking agent for high-end electronic packaging coatings, adhesives, and protective coatings. It has the advantages of high cross-linking density and hardness, lower internal stress, and excellent heat resistance.
DM-DMA is mainly used in fields that require extremely high heat resistance, mechanical strength, dimensional stability, and dielectric properties. Mainly used as a crosslinking agent for the preparation of high-end electronic product coatings, protective hard coatings, and structural adhesives. It has the advantages of high hardness and wear resistance, low volume shrinkage, and excellent heat resistance.
DA-DMA is mainly used in fields that require extremely high heat resistance, mechanical strength, dimensional stability, and dielectric properties. Mainly used as a crosslinking agent for the preparation of high-end electronic product coatings, protective hard coatings, and structural adhesives. It has the advantages of high hardness and wear resistance, low volume shrinkage, and excellent heat resistance.
The core function of 2,5-dimethyl-2,5-hexanediol dimethacrylate is to act as a crosslinking agent, forming a robust three-dimensional network structure in photoresist resin. Used for bump fabrication in MEMS (Micro Electro Mechanical Systems), sensors, integrated circuit packaging, metal plating masks, etc. The cross-linked network formed by it has high mechanical strength and can support thick adhesive structures.
Micro electromechanical systems, sensors, microfluidic chips, integrated circuit packaging, and other fields that require the processing of adhesive films with a thickness of several micrometers to several hundred micrometers. The photodimerization reaction of anthracene is a "switch" effect, with a significant difference in solubility between crosslinked and non crosslinked regions, resulting in the formation of a very steep sidewall pattern. Compared with some negative adhesives based on chain polymerization crosslinking, the dimerization of anthracene causes less volume shrinkage, which is beneficial for maintaining the dimensional accuracy and adhesion of the graphics.
Micro electromechanical systems, sensors, microfluidic chips, integrated circuit packaging, and other fields that require the processing of adhesive films with a thickness of several micrometers to several hundred micrometers. The photodimerization reaction of anthracene is a "switch" effect, with a significant difference in solubility between crosslinked and non crosslinked regions, resulting in the formation of a very steep sidewall pattern. Compared with some negative adhesives based on chain polymerization crosslinking, the dimerization of anthracene causes less volume shrinkage, which is beneficial for maintaining the dimensional accuracy and adhesion of the graphics.
As a thermosetting crosslinking node, the resin system is transformed from a liquid or thermoplastic state to a hard and durable thermosetting network structure through its highly reactive epoxy groups (and potential allyl groups). This compound is mainly used in fields that require extremely high heat resistance, electrical performance, and mechanical strength. In the plastic packaging materials and chip packaging adhesives of semiconductor components, isocyanuric acid can significantly improve the glass transition temperature, reflow soldering resistance, and low moisture absorption of the materials, ensuring the reliability of electronic devices in high temperature and high humidity environments.
Based on its high contrast and sensitivity, it can be used as a multifunctional photosensitizer. In fields such as MEMS, sensors, and packaging that require processing of adhesive films ranging from a few micrometers to tens of micrometers thick, high contrast photosensitizers are crucial. They can ensure vertical graphic sidewalls and good resolution capabilities even in thick films.
Acrylic monomers are widely used in coating formulations, utilizing their excellent film-forming and weather resistance to prepare transparent and wear-resistant coatings. When 1-ethylcyclopentyl ester is used as a comonomer, it can enhance the hardness and adhesion of the coating, while improving its chemical resistance and environmental aging resistance. As a part of the polymer matrix, its addition helps to improve the flexibility and durability of the adhesive, while also enhancing the performance of the sealant in terms of water and oil resistance. This is of great significance for high-performance bonding and sealing systems required in the building materials and automotive industries.
1-chloroethyl carbonate is commonly used as an electrolyte additive in lithium-ion batteries, which can optimize the stability and ion conductivity of the electrolyte. It can help form a stable solid electrolyte interface (SEI) layer during battery charging and discharging, thereby improving the cycle life and thermal stability of the battery, enhancing the safety and overall performance of lithium batteries. In addition, 1-chloroethyl carbonate can be used as a crosslinking agent or monomer modifier in polymer synthesis for the preparation of high-performance polymer materials. Carbonate groups help improve the strength, chemical resistance, and flexibility of materials during polymerization, making them suitable for applications in adhesives, coatings, and film materials.
1- (1-ethoxyethoxy) -4-vinylbenzene can be used as a pharmaceutical intermediate. It can be used to synthesize drugs with anticancer, anti-inflammatory, antibacterial and other activities. In addition, it can also be used to synthesize fluorescent dyes and developers. In addition, 1- (1-ethoxyethoxy) -4-vinylbenzene can be used as a raw material for functional materials. It can participate in polymerization reactions and prepare high molecular polymers, such as polymer coatings, adhesives, plastics, etc. Due to its vinyl base, it can provide the elasticity and wear resistance of the material.
Triethylmethoxyisilane can be used as a crosslinking agent and wear-resistant for silicone rubber and elastomers. It can react with hydroxyl silane to form a cross-linked structure, improving the strength, wear resistance, and cold resistance of silicone rubber. Triethylmethoxyisilane can be used as a surface treatment agent for glass, ceramics, metals, and other surfaces. It has good hydrophilicity and weather resistance, providing surface resistance to water, oil, and dirt. Due to its excellent adhesion and chemical resistance, triethylmethoxysilane can be used as an adhesive and sealant. It can react with many materials to form stable chemical bonds, providing excellent bonding strength and sealing performance.
Propargyl-PEG3-alcohol can be used as a raw material for functional materials. For example, it can react with other substances to form high molecular polymers or gel for preparing coatings, adhesives, plastics, etc. Propargyl-PEG3-alcohol has good biocompatibility and can be used for the preparation of biomaterials, drug delivery systems, etc. For example, it can be used as a carrier for drugs, improving their solubility and stability, and prolonging their duration of action in the body. Propargyl-PEG3-alcohol can undergo photosensitive reactions with other organic compounds, and is used to prepare photosensitive materials, photoresists, etc. It can also serve as an organic metal ligand to form complexes with metal ions, and can be used in fields such as photocatalysis and photoelectric conversion.