1 |
Mesh |
PP, stabilizer |
Polymer extrusion |
Use for hernia repair |
Biomedical |
[109] |
2 |
Scaffold |
PP, chitosan, hydrogel, TiO2
|
Electrospinning |
Useable as a antibacterial scaffold |
Biomedical |
[110] |
3 |
Fiber |
PP fiber |
Spinning, weaving, sewing |
Finer cloth for sportswear, cold clothing gear |
Cloth |
[111] |
4 |
Fiber |
Sand, cement, PP, and others |
Concrete preparation |
Suitability to use in concrete to improve the mechanical performance |
Construction |
[112] |
5 |
Scaffold |
PP polymer and tricalcium phosphate (TCP) ceramic |
Fused deposition |
Porous scaffold for bone grafts |
Biomedical |
[113] |
6 |
Fiber |
Short carbon fiber/PP with exfoliated graphene nanoplatelets |
Melt blending and hot-press |
Better tensile strength and impact properties |
Automobile and constructions |
[91] |
7 |
Scaffold |
PP fumarate, hydroxyapatite (HA) nanoparticles |
Extrusion-based printing technique |
Suitable for bone implantation |
Medical science |
[114] |
8 |
Composite |
PP, henequen fiber |
Moulding |
Higher tensile strength |
Construction |
[115] |
9 |
Composite |
Alkylated graphene oxide, PP |
Bimolecular nucleophilic substitution reaction |
Higher tensile strength |
Construction |
[116] |
10 |
Nano Composite |
Trimethoxy silanes, PP |
Solution mixing |
Better thermal stability, crystallinity and mechanical properties |
Automobile |
[117] |
11 |
Composite |
CNT, glass fiber and PP |
Extrusion and injection moulding |
Better tensile strength and modulus value than individuals |
Replacement of glass or CNT in different purposes |
[118] |
12 |
Composite |
Hexagonal boron nitride (hBN) with 1-dodecanol |
Solution mixing process and reaction |
Exhibit better thermal and mechanical properties with very low filler content |
Interior in house |
[119] |
13 |
Nano composite |
Titanium carbide (Ti3C2Tx)/PP |
Solution casting and melt blending |
Mention initial degradation temperature (79.1 °C increase), tensile strength (35.3% increase), ductility (674.6% increase) and storage modulus (102.2% increase) |
Used as thermally stable polymer in different purpose |
[19] |
14 |
Nano composite |
Titanium dioxide (TiO2) nanospheres with pimelic acid and Iso tactic PP |
Solution mixing and chemical reaction |
Improved thermal stability and viscoelastic properties were found |
Can be used as elastic |
[120] |
15 |
Composite |
100% recycled cotton fibers and PE/PP |
Hot press process |
It showed sound transmission up to 8 dB |
Can be used in automobile and interior design |
[121] |
16 |
Composite |
PP and PE |
Flat hot compact |
High stiffness, low level of damping |
Interior design |
[122] |
17 |
Composite |
PP and graphene |
“In-situ building” approach |
Excellent heat dissipation |
High power and highly integrated electronic devices |
[123] |
18 |
Composite |
Graphite, PP |
Solution mixing process and reaction |
Excellent thermal conductivity |
Electronic device |
[124] |
19 |
Scaffold |
PP carbonate, PDLA and Beta TCP |
Salt-leaching method |
Better result for bone defect repairment |
Biomedical |
[125] |
20 |
Scaffold |
Dicalcium phosphate dihydrate, PP fumarate |
Solution mixing process |
Better bone tissue engineering |
Biomedical |
[126] |
21 |
Composite |
Lignin-based hollow carbon fibers, lignin/PP |
Electro spinning |
High performance to low weight ratio |
Aerospace |
[127] |
22 |
Composite |
PP, carbon powder |
Extrusion and film blowing |
Extremely low aqua absorption level with high impact resistance |
Interior |
[128] |
23 |
Composite |
PP, carbon fiber |
Extrusion and film blowing |
High strength and stiffness along with good temperature resistance to 215°F |
Interior and construction |
[129] |
24 |
Composite |
PP, cementitious |
Solution mixing |
Better flow strength, less displacement to flow and better rheological parameters |
Construction |
[130] |