The wide range of easily accessible modifications with the presented PCP-polymers are shown in Potential application of the resulting chiral polymers cover, for example, the use as stationary phase in liquid-chromatography for the separation of enantiomers, which is known for polymers based on amylose derivatives, 3,5-dinitrobenzoylphenylglycine, or triphenylmethyl methacrylate. The catalytic viablility of PCP has been shown for a variety of asymmertric transforamtions presenting an alternative to conventional central and axial chirality. Transfer of this function and properties of PCP to a polymer allows for an easily recoverable catalyst, which can be further adjusted and optimized. The assembly of chiral supramolecular, polymeric structures makes an application as molecular sensor possible. The construction of supramolecular (chirality) sensing systems for biomolecules, such as amino acids, peptides, and saccharides, is one of the most crucial and challenging topics in current chemistry and is thus of particular significance. It is well-known that polymer's tacticity plays a vital importance in its physical properties such as crystallinity, thermal character, conformation, solubility, and morphology. Figure : Overview of the synthesized PCP-derived chiral monomers, aimed for polymerizations.