Page 90 - Polymer-based Nanocomposites for Energy and Environmental Applications

66 Polymer-based Nanocomposites for Energy and Environmental Applications

Table 2.11 Continued
S. no Material Preparation Properties References
composition method improved
5 ER/NC Spinning and Improved tensile [20]
extraction properties at 5%
clay
6 ER/GF/CB/ Resin transfer Improved ILSS [23]
CNT molding found at 0.3% CNT
loading
7 PR/GF/NC Vacuum-assisted Improved [24]
wet layup compressive
strength at 5% clay
loading
8 ER/GF/NC For matrix, Improved tensile, [25]
mechanically flexural properties,
stirred for about 1 h and storage
at room temperature modulus at 5% clay
For laminate-hand loading
layup
9 ER/GF/NC Vacuum-assisted Improved LVI [26]
wet layup behavior at 5% clay
10 VR/GF/CNT Vacuum-assisted Improved shear [27]
resin transfer strength fond at
molding process 0.1% of CNT
loading
11 PA/GF/CNT Extrusion with Improved flexural [28]
compression strength and
molding thermal
conductivity at 2%
CNT loading
12 ER/CF/NC Shear mixing with Damage tolerance [29]
hand layup process capacity and
damage resistance
improved at 3%
clay loading
13 ER/CNF Vacuum-assisted Flexural and ILSS [30]
resin infusion properties improved
molding at 0.1% CNF
loading
14 ER/CF/CNT Shear mixing with Less delamination [31]
autoclave vacuum area is observed
bag technique
15 PR/GF/CNF Vacuum-assisted Improved flexural [33]
resin transfer properties found at
molding 0.2% CNF loading
16 PR/GF/NC Vacuum-assisted DMA properties are [34]
resin transfer improved
molding