Rzayev Research Group

 
  1. Recent News

  2. 9/17 Congratulations to Sebla for her article on 1D assembly of anisotropically functionalized polymer nanotubes, which was published in JPS Polymer Chemistry. [Link]

  3. 9/17 Congratulations to Jose for his article on ultrasmall pitch size microstructures, which was published in Macromolecules as ACS Editors' Choice. [Link]

  4. 8/17 Congratulations to Esra for her article on mesoporous polymer frameworks, which was published in ACS Nano. [Link]

  5. For more recent news, follow us on Twitter: @RzayevLab

 

Polymer Chemistry at UB

Polymers have been at the forefront of soft nanomaterials research due to their availability from inexpensive feedstocks, chemical versatility and nanometer size scale. Copolymers can be produced by incorporating two or more different monomeric building blocks into a polymer chain in a random, alternating or blocky fashion. The solid state structure and properties of polymeric materials depend on the chemical identity of polymer chains as well as their ability to interact with each other to form supramolecular assemblies.









Our research program embraces all the steps of a successful materials design, from building tailored polymer structures and architectures to analyzing their supramolecular organization to testing their macroscale properties. The main thrust is centered around shape-persistent macromolecules, such as bottlebrush copolymers, as building blocks for nanoscale assemblies and functional materials. We synthesize complex macromolecular architectures and study how these molecules come together to form a solid state material or discrete assemblies in solution. We are interested in developing nanoporous materials for membrane applications and water purification, organic/inorganic hybrid materials for separations and catalysis, ultrahigh pitch periodic nanostructures for photonic applications, ultrasmall pitch periodic nanostructures for nanopatterning, and polymeric nanoparticles for drug delivery. Multidisciplinary nature of the program allows students to acquire diverse synthetic and analytical skills and develop broad scientific vision.

 

Research Highlight









Mesoporous polymer frameworks prepared by interconnecting rigid bottlebrush linkers. Attainable pore diameters of 9-50 nm are tunable by bottlebrush molecular dimensions.