1b). However, to obtain high RI polymers, we have to include highly polarizable moieties without affecting the number density of the polymers. We select polyimides as a model polymer and create novel polyimides by incorporating highly polarizable functional groups into the polymer backbone. Polyimides have attracted much attention due their exceptional thermal stability and ease of processability. Further, polyimides possess mechanical stability, good flexibility, flame resistance, radiation resistance and low dielectric constant, thus holding great promises for optoelectronic applications. However, these polymers have low RI values which the limit the use in these applications. In this work, we identify novel polyimide candidates with high RI values using the above mentioned
1b). However, to obtain high RI polymers, we have to include highly polarizable moieties without affecting the number density of the polymers. We select polyimides as a model polymer and create novel polyimides by incorporating highly polarizable functional groups into the polymer backbone. Polyimides have attracted much attention due their exceptional thermal stability and ease of processability. Further, polyimides possess mechanical stability, good flexibility, flame resistance, radiation resistance and low dielectric constant, thus holding great promises for optoelectronic applications. However, these polymers have low RI values which the limit the use in these applications. In this work, we identify novel polyimide candidates with high RI values using the above mentioned