produced LLDPE and thermoplastic elastomers with 1-octene incorporation varying
between 3 and 20 mol%. Both catalyst activity and 1-octene incorporation increased
with increasing 1-octene content. From the TEM image in Fig. 12 it is apparent that
uniform distribution of FG with the poly(ethylene-co-1-octene) matrix was achieved.
Fig. 10 Particle size distribution of UHMWPE/FG composites, containing 1 wt% Graphene
prepared by ethylene polymerization on FG/MAO/Cr-3 (above) and the corresponding homogeneous Cr-3/MAO (below). (Reprinted with permission from [72] Copyright 2008 American
Chemical Society)
Fig. 11 Preparation of FG/poly(ethylene-co-1-octene) nanocomposites by polymerization filling
using FG-supported nBu 2 Cp 2 ZrCl 2 /MAO
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293
between 3 and 20 mol%. Both catalyst activity and 1-octene incorporation increased
with increasing 1-octene content. From the TEM image in Fig. 12 it is apparent that
uniform distribution of FG with the poly(ethylene-co-1-octene) matrix was achieved.
Fig. 10 Particle size distribution of UHMWPE/FG composites, containing 1 wt% Graphene
prepared by ethylene polymerization on FG/MAO/Cr-3 (above) and the corresponding homogeneous Cr-3/MAO (below). (Reprinted with permission from [72] Copyright 2008 American
Chemical Society)
Fig. 11 Preparation of FG/poly(ethylene-co-1-octene) nanocomposites by polymerization filling
using FG-supported nBu 2 Cp 2 ZrCl 2 /MAO
Polyolefin Nanocomposites and Hybrid Catalysts
293