of the elastomeric material being used this temperature was maintained to achieve a constant temperature gradient throughout the material next a sufficient compressive force was applied on to the top of the piston while the force was maintained the piston was rotated to a desired angle by applying such a strain in the azimuthal direction on the top surface of the material a gradient of the filler organization orientation in the axial direction is formed which results in a composite possessing unique physical and mechanical properties examples of various conductive filler materials that may be used include graphite carbon based materials carbon black graphene graphite nanoplatelets single walled carbon nanotubes multi walled carbon nanotubes carbon fibers fullerene etc silver conductive materials flakes fibers gold conductive materials flakes and alumnimum conductive materials flakes fibers fig4 shows optical microscope images of a top surface and b cross section of a 0 05 v v gnp ps composite as seen in fig1 the composite with 0 3 v v gnp has a foam like or honeycomb like structure in which the dark wall like structures are gnp while the lighter domains are the ps images of a 0 05 v v gnp ps composite exhibiting this segregated structure are shown in fig4 fig5 shows the electrical conductivity as a function of graphene loading a significant enhancement in electrical conductivity is demonstrated when 0 01 v v gnp was added to the ps since the boundaries located between the pellets are maintained the graphene particles become interconnected throughout the material thus causing a significant increase in conductivity while using very low loadings of graphene the capillary driven coating process enables more graphene to completely coat the surface of the ps which in turn increases the electrical conductivity of the composite approximately.