As a leading manufacturer over 20 years. Our exquisite craftsmanship can meet all your requirements!
Views: 9 Author: Site Editor Publish Time: 2024-05-07 Origin: Site
Butyl acrylate is a colorless liquid with a characteristic irritating odor, and is an important member of acrylic ester compounds. It is mainly prepared by esterification reaction of acrylic acid and butanol, and is an important chemical raw material and synthetic intermediate.
Butyl acrylate is one of the key raw materials in the coatings and adhesives industry. It has good adhesion, quick drying, and weather resistance, making it widely used in the manufacturing of various coatings, paints, and adhesives. Especially in water-based coatings and high solid coatings, butyl acrylate can improve the glossiness, leveling, and adhesion of products, thereby enhancing the performance of the final product.
Butyl acrylate can also be used as a polymer modifier, and by copolymerizing with other monomers, polymers with specific properties can be prepared. For example, adding butyl acrylate to polyvinyl chloride (PVC) can improve its processing performance and flexibility, making it easier to shape and process.
In the textile industry, butyl acrylate can be used to produce various textile additives, such as waterproofing agents, softeners, and flame retardants. These additives can endow textiles with additional functions, improve their added value and market competitiveness.
Butyl acrylate also has important applications in the fields of medicine and pesticides. It can serve as an intermediate in the synthesis of certain drugs and pesticides, and further chemical reactions can be used to prepare biologically active compounds.
In addition to the above-mentioned fields, butyl acrylate is also widely used in the production of products such as inks, sealants, and floor polishing agents. Its versatility and excellent performance make it an indispensable raw material in the chemical industry.
The market demand for butyl acrylate is directly influenced by downstream industries. With the development of the global economy and consumption upgrading, the growing demand in industries such as coatings, adhesives, and textiles has also driven the expansion of the butyl acrylate market. Meanwhile, the production and supply of butyl acrylate also have a significant impact on the development of related industries. For example, the supply stability and price fluctuations of butyl acrylate will directly affect the cost and market competitiveness of products such as coatings and adhesives.
In summary, the importance of butyl acrylate in industry is self-evident. It is not only a key raw material for various industrial products, but also an important force in promoting the development and technological innovation of related industries. With the advancement of technology and the development of the market, the application fields of butyl acrylate will continue to expand, and its position in industry will become increasingly important.
Polymer monomer: Butyl acrylate is one of the key monomers for preparing acrylic ester polymers. These polymers are widely used in the manufacturing of various types of coatings, including water-based coatings, powder coatings, and high solid coatings, due to their excellent physical and chemical properties.
Adhesive: Butyl acrylate can be used to produce adhesives, which play a crucial role in coating formulations, enhancing the adhesion between coatings and substrates.
Leveling agent: In the coating formulation, butyl acrylate helps improve the leveling of the coating, ensuring uniform distribution of the coating and avoiding brush and roll marks.
Gloss regulator: Butyl acrylate can adjust the glossiness of coatings, giving them a better appearance and aesthetics.
Weathering enhancer: Butyl acrylate helps improve the weather resistance of coatings, making them resistant to environmental factors such as UV, humidity, and temperature changes, and prolonging the service life of coatings.
Durability: Coatings using butyl acrylate have excellent durability and can maintain stable performance under various climatic conditions, without fading, powdering, or peeling.
Fast drying: Butyl acrylate helps to accelerate the drying speed of coatings, shorten construction time, and improve work efficiency.
Good adhesion: Butyl acrylate enhances the adhesion between the coating and the substrate, ensuring that the coating is firm and not easily peeled off.
Chemical resistance: Coatings modified with butyl acrylate have good resistance to many chemicals and are suitable for protective coatings in chemically corrosive environments.
Environmentally friendly: Compared to traditional solvent based coatings, water-based butyl acrylate coatings have lower volatile organic compound (VOC) emissions and are more environmentally friendly.
Multifunctionality: Butyl acrylate can be combined with other types of resins and additives to prepare coatings with multiple functions, such as corrosion resistance, scratch resistance, UV resistance, etc.
Wide range of applications: Due to the aforementioned performance advantages, coatings modified with butyl acrylate can be applied in various fields, including indoor and outdoor decoration, automotive, aerospace, industrial maintenance, wooden furniture, etc.
Water based adhesive: using water as a solvent or dispersion medium, suitable for bonding porous materials such as wood, paper, textiles, etc. Common ones include white glue, polyvinyl alcohol glue (PVA glue), etc.
Solvent based adhesive: using organic solvents as the medium, suitable for bonding non porous materials such as plastics, metals, leather, etc. For example, acrylic solvent based adhesives.
Hot melt adhesive: It is a viscous fluid when heated and quickly solidifies after cooling. It is suitable for industries such as packaging and wood processing.
Pressure sensitive adhesive: It has pressure sensitivity and can be easily bonded with light pressure. It is widely used in products such as tapes and labels.
Epoxy resin adhesive: With excellent mechanical properties and chemical resistance, it is suitable for high-end fields such as aerospace and automotive manufacturing.
Polyurethane adhesive: With good flexibility and weather resistance, it is suitable for industries such as construction and furniture.
Cyanoacrylate adhesive, also known as instant adhesive, has a fast curing speed and is suitable for emergency repairs and quick bonding.
Butyl acrylate is mainly used as a monomer or comonomer in adhesive production, and its role is mainly reflected in the following aspects:
Improving adhesive performance: Butyl acrylate can copolymerize with other monomers to form polymers with specific properties, which have good adhesive properties and can improve the adhesive strength and cohesion of the adhesive.
Improving weather resistance: Butyl acrylate copolymer has good weather resistance, which can maintain stable bonding performance of the adhesive under various environmental conditions, and is not prone to aging and embrittlement.
Adjusting flexibility: The introduction of butyl acrylate can adjust the flexibility of the adhesive to meet the bonding needs of different materials, especially in situations where a certain degree of elasticity is required, such as the bonding of materials such as plastic and rubber.
Enhanced chemical resistance: Butyl acrylate copolymers have good resistance to many chemical substances, which can improve the chemical resistance of adhesives and maintain good bonding performance even in chemically corrosive environments.
Optimizing processing performance: Butyl acrylate can improve the rheological properties of adhesives, making them easier to apply and process, and improving production efficiency.
Fiber modification is the process of improving the performance of fibers through physical or chemical methods to meet specific application requirements. Synthetic fibers are widely used in industry and daily life due to their strong plasticity and adjustable properties through modification. Butyl acrylate, as an important chemical raw material, plays a crucial role in the modification of synthetic fibers.
Improve mechanical performance: Enhance the strength, modulus, and toughness of fibers to withstand greater loads and harsher usage environments.
Improving chemical resistance: Enhancing the resistance of fibers to chemicals such as acid, alkali, and salt, and extending their service life.
Enhance heat resistance and weather resistance: enable fibers to maintain stable performance under high temperatures or harsh weather conditions.
Improving flame retardancy: By modifying the fibers, they are less likely to burn or have a slower burning rate when exposed to a fire source.
Improve dyeing and glossiness: Make fibers easier to color and have a better appearance.
Add special functions such as antibacterial, waterproof, conductive, etc. to meet the needs of special purposes.
The application of butyl acrylate in the modification of synthetic fibers is mainly reflected in the following aspects:
Improving the flexibility and toughness of fibers: Butyl acrylate can be introduced into the molecular chains of fibers through grafting copolymerization, increasing the flexibility of the molecular chains, thereby improving the toughness and tensile resistance of fibers.
Improving the weather and heat resistance of fibers: Fibers modified with butyl acrylate have better weather and heat resistance, and can maintain stable performance over a wider temperature range.
Enhancing the chemical resistance of fibers: The introduction of butyl acrylate can improve the resistance of fibers to chemical substances, allowing them to have a longer service life in chemically corrosive environments.
Improving the dyeing and glossiness of fibers: Modification with butyl acrylate can increase the active groups on the fiber surface, making it easier to bind with dye molecules, thereby improving dyeing performance.
Endowing fibers with special functions: butyl acrylate copolymerizes with other functional monomers, which can endow fibers with special functions such as antibacterial, waterproof, conductive, etc.
Improving the processing performance of fibers: The fibers modified with butyl acrylate are easier to form and process during the processing, improving production efficiency and product quality.
Improving mechanical properties: By adding various reinforcing materials or fillers, such as glass fiber, carbon fiber, nanoparticles, etc., the strength, hardness, toughness, and impact resistance of plastics can be significantly improved.
Improving environmental resistance: In order to enable plastics to adapt to various environmental conditions, such as UV resistance, weather resistance, chemical resistance, etc., corresponding stabilizers and protective layers will be added through modification.
Optimizing processing performance: Modifying can improve the fluidity, thermal stability, and processing performance of plastics, making them easier to shape and process.
Special functions can be endowed to plastics through modification according to the specific application requirements, such as flame retardancy, conductivity, antibacterial, self-healing, and other special functions.
Improving biodegradability: In order to reduce the impact of plastics on the environment, biodegradable modified plastics have been developed, which can decompose in the natural environment.
Butyl acrylate (BA) is an important acrylic monomer widely used in plastic modification, and its impact on plastic properties is mainly reflected in the following aspects:
Improving flexibility and toughness: Graft copolymerization of butyl acrylate onto plastic molecular chains can increase the flexibility of the molecular chains, thereby improving the toughness and tensile resistance of plastics.
Improving weather and heat resistance: Plastics modified with butyl acrylate have better weather and heat resistance, and can maintain stable performance over a wider temperature range.
Enhanced chemical resistance: The introduction of butyl acrylate can enhance the resistance of plastics to chemicals, allowing them to have a longer service life in chemically corrosive environments.
Improving processing performance: Modification with butyl acrylate can improve the processing performance of plastics, making them easier to shape and process, improving production efficiency and product quality.
Special functions endowed: Butyl acrylate copolymerizes with other functional monomers, which can endow plastics with special functions such as antibacterial, waterproof, conductive, etc.
Improving the interfacial compatibility of composite materials: In the composite of plastics with fillers or reinforcing materials, butyl acrylate can serve as a compatibilizer to improve the interfacial bonding between fillers and matrix, thereby enhancing the overall performance of composite materials.
Improving the usability of leather: Through processing, the durability, softness, elasticity, and tear resistance of leather are enhanced, making it more suitable for making shoes, clothing, luggage, and other products.
Enhance aesthetics: Leather processing can endow leather with diverse colors and textures through dyeing, printing, embossing, and other methods, meeting consumer needs for aesthetics and personalization.
Enhancing added value: High quality processed leather can significantly enhance the market value of the final product, creating higher profit margins for manufacturers and retailers.
Environmental protection: Reasonable leather processing technology can reduce the impact on the environment, such as reducing pollutant emissions through the use of environmentally friendly tanning materials and wastewater treatment technologies.
The application of butyl acrylate (BA) in leather processing mainly focuses on the following aspects:
Coating agent: Butyl acrylate can be used as a coating agent to form a protective film on the surface of leather, improving its water resistance, stain resistance, and wear resistance.
Adhesive: In the lamination of leather or the composite process with other materials (such as textiles), butyl acrylate can serve as an adhesive, providing good bonding performance.
Finishing agent: Butyl acrylate can be used in the leather finishing process to improve the feel and appearance of leather, while endowing leather with specific functions such as waterproofing and oil resistance.
Modifying agent: Butyl acrylate can also be used as a modifier to react with other chemicals and improve certain intrinsic properties of leather, such as enhancing its UV resistance or enhancing color stability.
Environmentally friendly alternatives: Due to the increasing demand for environmentally friendly products, butyl acrylate, as a relatively environmentally friendly chemical, is gradually replacing some traditional leather processing chemicals that may be harmful to the environment.
paper industry
Resource dependence: The papermaking industry has a high dependence on resources, especially the demand for wood, water, and energy. This not only leads to pressure on natural resources, but may also cause fluctuations in raw material prices, affecting production costs.
Energy consumption and carbon emissions: The papermaking process is energy intensive, high in energy consumption, and generates a large amount of carbon emissions during the production process. With increasing global attention to climate change, paper companies need to find ways to reduce energy consumption and carbon emissions.
Paper recycling and reuse: Paper recycling and reuse is an important aspect of the papermaking industry. Improving the recycling and utilization rate of waste paper can not only reduce dependence on original resources, but also reduce environmental pollution.
Environmental regulations and policies: The increasingly strict requirements of environmental regulations require paper companies to take more effective pollution control measures, which may increase their operating costs.
Technological innovation and upgrading: In order to improve production efficiency and product quality, while reducing environmental impact, papermaking enterprises need to continuously carry out technological innovation and equipment upgrades.
Butyl acrylate (BA) plays an important role as a paper reinforcing agent in the papermaking industry. It improves the performance of paper through the following aspects:
Improving paper strength: Butyl acrylate can react with paper fibers to form a three-dimensional network structure, thereby improving the tear strength and tensile strength of the paper.
Improving paper water resistance: As a paper reinforcing agent, butyl acrylate can enhance the water resistance and moisture resistance of paper, allowing it to maintain good physical properties even in humid environments.
Enhance the printability of paper: The surface of paper modified with butyl acrylate is smoother, which helps improve printing quality and reduce wear and powder loss during the printing process.
Improving paper stability: Butyl acrylate can enhance paper size stability and reduce paper deformation and shrinkage caused by environmental changes.
Environmental Protection and Sustainability: Butyl acrylate, as an environmentally friendly paper reinforcing agent, helps to reduce reliance on traditional chemical reinforcing agents and promote the sustainable development of the paper industry.
Reaction mechanism: Understand the detailed steps of each chemical reaction, including how reactants transform into intermediate and transition states of products.
Reaction conditions: Determine the most suitable temperature, pressure, solvent, and pH conditions for a specific reaction to optimize the reaction rate and product yield.
Catalysts: The use of catalysts can reduce the activation energy of the reaction, improve the reaction rate and selectivity, and reduce the occurrence of side reactions.
Selectivity: In multi-step synthesis, selectivity is crucial as it determines the yield and purity of the target product. Chemical selectivity, regional selectivity, and stereoselectivity are the three main aspects that need to be considered in synthesis.
Purification method: The synthesized target product needs to be purified through appropriate methods (such as distillation, extraction, crystallization, etc.) to remove by-products and impurities.
Butyl acrylate is an important intermediate in organic synthesis, which is widely used in various organic synthesis reactions due to its active ester and acrylate groups
Polymer synthesis: Butyl acrylate can copolymerize with other monomers to form various polymers, such as copolymers of polyacrylates and polyvinyl chloride (PVC). These polymers are widely used in coatings, adhesives, textile coatings, and plastic products.
Synthetic fibers: Butyl acrylate can be used as a monomer for synthetic fibers to generate fibers with specific properties through polymerization reactions, such as high-performance fibers that are heat-resistant and resistant to chemical corrosion.
Coatings Industry: Butyl acrylate is a key raw material for manufacturing acrylic coatings, which have good weather resistance, glossiness, and adhesion, and are suitable for coating various indoor and outdoor materials.
Adhesive: In the production of adhesives, butyl acrylate can be used as a viscosity regulator to improve the adhesive strength and water resistance.
Paper industry: Butyl acrylate is used as a paper reinforcing agent, which can improve the strength and durability of paper, especially in the production of high-strength paper and specialty paper.
Medicine and pesticides: Butyl acrylate can also be used as an intermediate in the synthesis of certain drugs and pesticides, and biologically active compounds can be prepared through further chemical reactions.
Chemical modification: The active ester group of butyl acrylate can react with other compounds and be used as a chemical modifier, such as in the synthetic rubber industry as a modifier, to improve the performance of rubber.
Medical device coating: Butyl acrylate can copolymerize with other non-toxic monomers to form a coating material for the surface of medical devices. These coatings not only have good biocompatibility, but also provide characteristics such as anti adhesion and anti wear, reducing bacterial adhesion and lowering the risk of infection.
Food packaging materials: In the food packaging industry, butyl acrylate can be used to produce copolymers that meet food safety standards. These copolymers can be used as adhesives or coatings for the inner layer of food packaging, ensuring the freshness and safety of food during transportation and storage.
Children's toy manufacturing: The non-toxic copolymer synthesized with butyl acrylate can be used in the manufacturing of children's toys. These materials are not only safe and harmless, but also provide good mechanical properties and weather resistance, ensuring the durability and safety of toys.
Environmentally friendly coatings: Butyl acrylate can be used to prepare environmentally friendly coatings with low volatile organic compounds (VOCs). These coatings release less harmful substances during construction and use, which helps to improve indoor air quality, protect the environment and human health.
High performance adhesive: In high-end fields such as aerospace and automotive manufacturing, copolymers synthesized with butyl acrylate can serve as high-performance adhesives, providing excellent adhesive strength, temperature resistance, and chemical resistance.
Biomedical materials: Butyl acrylate can also be used to synthesize biomedical materials, such as drug sustained-release systems, tissue engineering scaffolds, etc. These materials have good biocompatibility and biodegradability, and can gradually degrade in the body without producing harmful substances.
Water treatment agent: In the field of water treatment, copolymers synthesized with butyl acrylate can be used as flocculants or dispersants to purify water quality, remove suspended particles and pollutants from water.
Electronics industry: Butyl acrylate can be used in the electronics industry to prepare insulation coatings for circuit boards, protecting circuits from moisture, dust, and chemical corrosion, improving the reliability and service life of electronic products.
Chemical properties: Butyl acrylate has good chemical stability and reactivity, and can copolymerize with other monomers to form various polymers, which are used in the production of coatings, adhesives, textile coatings, etc.
Physical properties: As a liquid monomer, butyl acrylate has low toxicity and irritancy, is easy to process and use, and provides good adhesion and weather resistance.
Environmental characteristics: Butyl acrylate can be used to produce environmentally friendly products, such as water-based coatings and biodegradable plastics, which helps reduce environmental pollution.
Special applications: In special fields such as medical devices, food packaging, children's toys, etc., the application of butyl acrylate reflects its non-toxic and non irritating characteristics, meeting high requirements for safety and environmental protection.
Green chemical industry: With the increasing strictness of environmental regulations and the improvement of public environmental awareness, the production and application of butyl acrylate will pay more attention to green chemical technology, reduce the emission of harmful substances, and improve resource utilization efficiency.
High performance materials: The application of butyl acrylate in the field of high-performance materials will continue to expand, especially in aerospace, automotive manufacturing, electronic products and other fields, and the demand for high-performance polymers will continue to grow.
Biobased materials: The development and application of bio based production methods for butyl acrylate will become a research hotspot to achieve sustainable development and reduce dependence on fossil resources.
Nanotechnology: Butyl acrylate has the potential in the synthesis of nanocomposites, which can improve the mechanical properties, heat resistance, and functionality of materials, and meet the needs of special applications.
Intelligent Manufacturing: With the development of intelligent manufacturing technology, the production process of butyl acrylate will become more automated and intelligent, improving production efficiency and product quality, and reducing production costs.
