This project explores how certain types of molecules come together to form tiny structures that can be useful in medicine, energy, and the environment. These molecules are special because they have parts that like water and parts that don’t, so they naturally organize themselves when mixed with liquids. This self-organization can lead to the creation of materials like soft particles or thin films, which are useful for carrying medicine, storing energy, or cleaning up pollution. The research will focus on understanding what happens when these molecules first form small liquid droplets and then transform into solid particles. By learning how this process works, scientists can better control the design of new materials for specific uses. For example, it could help create better ways to deliver medicine exactly where it's needed in the body or make materials that capture and store energy more efficiently. Additionally, the project emphasizes education and outreach, and will actively involve students and local schools in engaging activities to inspire future scientists and engineers. The goal of this project is to fundamentally understand the structure, dynamics, and encapsulation behavior of multiphase amphiphilic block copolymers in solution. The research is divided into three aims. First, a comprehensive library of block copolymers will be synthesized, and their phase behaviors will be systematically mapped using advanced characterization techniques, including electron micr