Page 91 - Polymer-based Nanocomposites for Energy and Environmental Applications

Preparation and properties of nanopolymer advanced composites: A review 67

Table 2.11 Continued
S. no Material Preparation Properties References
composition method improved
17 ER/KF/NC Vacuum bag Better impact [35]
molding method response observed
in 3% and 6% clay
loading
18 ER/GF/CNT Vacuum bag Improved [36]
molding method interfacial strength
at 0.5% CNT
19 ER/GF/PUF/ Resin infusion Flexural strength [37]
TiO 2 nano molding process and stiffness
improved at 3%
TiO 2 loading
20 ER/CNT/CF/ Compression Improved dynamic [38]
PhR molding properties at 3%
CNT loading
21 ER/PUR/NC/ Coinjection resin Damage area [39]
CF transfer molding reduced by clay
reinforcement
22 VR/PVCF/ Vacuum infusion Damage [40]
CF/NCF process characteristics are
improved
23 ER/GF/PUF/ Coinjection resin Debond fracture [41]
nano-TiO 2 / infusion molding toughness improved
NC/CNF (CIRIM) technique at 1% clay loading
24 ER/GF/PSF/ Hand layup with Efficient energy [43]
NC vacuum-assisted absorption is found
curing at 5% clay loading
25 ER/CNT/AL Hot-pressing Better energy [46]
dissipation behavior
found at CNT
reinforcement
26 PR/GF/PSF/ Hand layup process Better mechanical [47]
NC at 4% clay loading
27 SPCR/FF/NC Carver hydraulic Improved [50]
hot press at 120°C mechanical
for 25 min under a properties
pressure of 8 MPa
28 HDPE/ Melt compounding Improved [51]
bamboo/NC process mechanical
properties at 5%
clay loading
29 ER/SF/NC Vacuum-assisted 5% clay composites [52]
resin infusion exhibited better
molding (VARIM) mechanical and
dynamic properties
Continued