(Left to Right) Standing: Su-Hou Pai, Genggeng Qi, Li
Li, Wenhong Ruan, Kai Pan, Ritu Sahore, Panos Dallas, Weiran Yang, Marta
Krysmann, Apostolos Enotiadis, Anirudh Anandampillai, Anuja Bagul, Isaac
Degani, Natalie Becerra, T. J. Wallin, Liling Fu, Nikhil Fernandes.
Sitting: Emma Kamnang, Turki Baroud, Emmanuel Giannelis, Tiffany Williams, Xiaonan Duan, Lou Estevez
Efforts to manipulate and control materials at the nanoscale have taken center stage in research activities all over the world. These efforts are motivated, in part, by the realization that nanoscale materials often exhibit properties that are dramatically different from their microscale counterparts. In that respect polymer nanocomposites synthesized by adding nanoparticles such as nanoclays into the polymer matrix have attracted considerable attention in recent years. The goal is to develop lightweight composites with potentially superior mechanical, rheological, electrical, thermal and biomedical properties by taking advantage of the high surface area available in the nanoparticles and the accompanied synergistic effects with the polymer matrix.
Over the years our group has been active and contributed to these efforts. Specific directions have included:
- Chemical synthesis and processing of nanocomposites with controlled structure and interface properties.
- Characterization of interface structure and dynamics,
- Delineation of molecular and structural features that contribute to the mechanical and physical properties of the materials.
All previous efforts have focused on fine-tuning the polymer/nanoparticle miscibility in order to achieve full nanoparticle dispersion. More recently we have become interested in manipulating nanoparticles into organized assemblies by exploiting depletion interactions/phase separation of nanoclays and other nanoparticles.
Finally, we are devoting a significant part of our recent efforts into the development of “solvent-free” or “dry” nanoparticle fluids. These new hybrid systems consist of inorganic nanoparticle cores functionalized with a charged corona. Because of their molecular architecture they flow like liquids but possess no volatility. Furthermore, because of their hybrid nature their optical, magnetic, electronic, biological and other properties can be fine-tuned to meet potential applications.
Post-doctoral researcher opening: Deadline January 10th, 2013
There is a post-doctoral researcher position currently available. The project is "Carbon dots - synthesis, characterization, and applications" and the position is jointly supervised by Prof. Radek Zboril, Palacky University and Prof. Emmanuel Giannelis, Cornell University. Please click here to read the PDF file for details.