| product_name | Acrylic acid 6-(4-hydroxy-phenoxy)-hexyl ester |
| CAS_number | 94576-68-8 |
| formula | C15H20O4 |
| molar_mass | 264.32 g/mol |
| melting_point | N/A |
| boiling_point | N/A |
| density | N/A |
| appearance | N/A |
| solubility | N/A |
| refractive_index | N/A |
| flash_point | N/A |
| vapor_pressure | N/A |
| pKa | N/A |
| logP | N/A |
What is Acrylic acid 6-(4-hydroxy-Phenoxy)-hexyl ester and what is it used for?
Acrylic acid 6-(4-hydroxy-Phenoxy)-hexyl ester is a chemical compound used in a variety of applications, including as a coating agent, adhesive, and polymer additive. It is commonly utilized in the production of paints, adhesives, and sealants due to its excellent adhesive properties and resistance to weathering.
How does Acrylic acid 6-(4-hydroxy-Phenoxy)-hexyl ester differ from other acrylic compounds?
Acrylic acid 6-(4-hydroxy-Phenoxy)-hexyl ester possesses a unique structure that provides enhanced adhesion properties compared to other acrylic compounds. Its hydroxy and phenoxy groups allow for stronger bonds with substrates, making it an ideal choice for applications where superior adhesion is required.
What are the key benefits of using Acrylic acid 6-(4-hydroxy-Phenoxy)-hexyl ester in paints and coatings?
One of the main benefits of using Acrylic acid 6-(4-hydroxy-Phenoxy)-hexyl ester in paints and coatings is its excellent adhesion to various surfaces, including metal, plastic, and wood. Additionally, it offers good chemical resistance, weatherability, and UV stability, making it a reliable choice for outdoor applications.
How is Acrylic acid 6-(4-hydroxy-Phenoxy)-hexyl ester formulated into adhesives?
Acrylic acid 6-(4-hydroxy-Phenoxy)-hexyl ester is typically formulated into adhesives by blending it with other polymers, tackifiers, and solvents to achieve the desired properties. Its high adhesion strength and flexibility make it an excellent choice for formulating pressure-sensitive adhesives used in tapes and labels.
In what ways can Acrylic acid 6-(4-hydroxy-Phenoxy)-hexyl ester improve the performance of sealants?
Acrylic acid 6-(4-hydroxy-Phenoxy)-hexyl ester can improve the performance of sealants by enhancing their adhesion to substrates, durability, and weather resistance. It can also help reduce shrinkage and cracking, leading to longer-lasting and more reliable sealant applications.
What are the environmental and health safety considerations when handling Acrylic acid 6-(4-hydroxy-Phenoxy)-hexyl ester?
When handling Acrylic acid 6-(4-hydroxy-Phenoxy)-hexyl ester, it is essential to follow proper safety precautions to prevent skin and eye contact, inhalation, or ingestion. It is recommended to use personal protective equipment, such as gloves and goggles, and to work in well-ventilated areas to avoid exposure to harmful vapors.
How can Acrylic acid 6-(4-hydroxy-Phenoxy)-hexyl ester contribute to sustainable manufacturing practices?
Acrylic acid 6-(4-hydroxy-Phenoxy)-hexyl ester can contribute to sustainable manufacturing practices by improving the performance and longevity of products, reducing the need for frequent replacements or repairs. Its excellent adhesion properties can also help minimize material waste and improve overall product efficiency.
What are some potential applications for Acrylic acid 6-(4-hydroxy-Phenoxy)-hexyl ester in the automotive industry?
In the automotive industry, Acrylic acid 6-(4-hydroxy-Phenoxy)-hexyl ester can be used in coatings, adhesives, and sealants for various applications, such as body panels, trim components, and windshield bonding. Its superior adhesion strength, weather resistance, and durability make it a valuable additive in automotive manufacturing processes.
How does the molecular structure of Acrylic acid 6-(4-hydroxy-Phenoxy)-hexyl ester contribute to its adhesive properties?
The molecular structure of Acrylic acid 6-(4-hydroxy-Phenoxy)-hexyl ester, with its hydroxy and phenoxy groups, enables it to form strong bonds with substrates, creating a stable and durable adhesive interface. These functional groups enhance the chemical interaction between the ester and the substrate, resulting in improved adhesion performance.