Products

Esschem MMA - HPMA Bead Copolymers are a versatile range of copolymers combining methyl methacrylate (MMA) with hydroxypropyl methacrylate (HPMA). These bead copolymers offer exceptional performance and customizable properties for various applications. With increased MMA content, these copolymers exhibit elevated glass transition temperatures, melting points, and tensile strengths, providing enhanced strength and durability. Conversely, higher HPMA content improves adhesion and reduces glass transition temperatures, melting points, and tensile strengths, offering flexibility and tailored characteristics. Esschem further enhances the molecular weight of these copolymers, resulting in more rigid and durable materials. By manipulating the particle size, solubility, dispersion properties, and transparency can be optimized, making them ideal for applications that demand transparency, strength, and toughness.

Esschem MMA - EMA Bead Copolymers are a range of bead copolymers combining methyl methacrylate (MMA) with ethyl methacrylate (EMA). These copolymers exhibit high glass transition temperatures, melting points, and tensile strengths, making them ideal for industries that demand strength and rigidity. By increasing the EMA content, the copolymers offer greater flexibility and the potential for enhanced optical properties. This results in lower glass transition temperatures, melting points, and tensile strengths, providing desired flexibility and transparency. Esschem provides control over the molecular weight to further enhance these properties, allowing for a more rigid and robust copolymer or targeting flexibility and transparency as needed. Particle size control enables fine-tuning of processability and adjustment of surface properties, leading to better performance in applications that prioritize transparency.

Esschem MMA - AMA Bead Copolymers are a versatile range of copolymers combining methyl methacrylate (MMA) with allyl methacrylate (AMA). These copolymers showcase the unique characteristics of AMA as a crosslinker in polymers. With varying MMA and AMA concentrations, Esschem offers a wide range of copolymer beads with different properties. Higher MMA content in the copolymer results in elevated glass transition temperatures, melting points, and tensile strengths, making them ideal for applications requiring high strength and rigidity. On the other hand, increasing the AMA content lowers these properties while enhancing crosslinking and hardness. By adjusting the molecular weight, Esschem can further customize the copolymer's rigidity and crosslinking behavior. The particle size of the beads can also be modified to optimize processing and surface properties, including adhesion characteristics.

Esschem incorporates sustainable plant-based plasticizers into methyl methacrylate MMA bead polymers. These innovative additives are designed to enhance the flexibility and workability of methacrylate-based polymers. By incorporating bio-plasticizers into MMA bead copolymers, the resulting materials exhibit increased flexibility and reduced glass transition temperature, melting points, and tensile strengths.The inclusion of higher molecular weight components contributes to stronger and more heat-resistant materials.Furthermore, the particle size plays a crucial role in surface properties, where smaller particles enhance adhesion while larger particles contribute to robustness and rigidity.

Esschem MMA - BMA Bead Copolymers are a range of copolymers combining methyl methacrylate (MMA) with butyl methacrylate (BMA).These copolymers offer a versatile solution with varying properties based on the MMA and BMA content. Higher MMA content results in copolymers with elevated glass transition temperatures, melting points, and tensile strengths, making them suitable for applications that require strength and rigidity. Conversely, increased BMA content lowers these properties while enhancing processability and potential flexibility.By adjusting the molecular weight, Esschem can tailor the copolymer structure to achieve specific rigidity requirements. Additionally, controlling the particle size allows for improvements in mechanical strength, with smaller particles offering larger surface area to volume ratios.