Table 2.
Synthesized nanomaterials via solid/liquid, gas/liquid, and gas/solid interface-assisted approach.
| Interfaces Used | Nanostructures | Morphology | Application | Reference |
|---|---|---|---|---|
| Solid/Liquid | CeO2/Cu2O | Nanocomposite | Catalytic activity for CO oxidation. | [76] |
| Fe3O4/Fe(OH)3 | Flower-like nanocomposite | Nanocatalyst for the cycloaddition reaction of CO2 and epoxides. | [77] | |
| CeO2 | Nanotube | A catalyst for CO oxidation. | [78] | |
| CuO | Nanorod | Photocatalytic degradation of RhB. | [79] | |
| Co3O4 | Mesoporous nanoparticle | Electrochemical capacitive behavior. | [80] | |
| Gas/Liquid | NiO | Flower like-hollow nanosphere | Proposing excellent supercapacitor potentials. | [81] |
| Ag-MnOOH-GO | Nanocomposite | Electrochemical sensing has a good property to catalyze H2O2. | [82] | |
| Pt NWN | Nanowire network sheet | Used in electrocatalytic reactions i.e. ORR and HER, capable of developing next-generation electrocatalysts. | [83] | |
| Cu(OH)2/Au/SiO2 | Ordered nanoarray composite | For detection of trace gaseous VOCs (Volatile organic compounds). | [84] | |
| Janus Nanographene Oxide | 2D lamellar-like nanostructure | Enhancing foam stability in high-temperature reservoirs. | [85] | |
| Quasi 2D Polyaniline (PANI) | Thin Film (2.6–30 nm) | Good chemical vapor sensing ability. | [86] | |
| Ag/WO3/rGO | Nanocomposite | H2S gas sensor | [87] | |
| Fe3O4 | Nanorod | For the photodegradation of phenol as a catalytic carrier. | [88] | |
| SnO2/rGO | Nanocomposite | Sensing of NO2. | [89] | |
| Gas/Solid | Fluorine-doped carbon nanosphere (FPHCs) | Hierarchical porous hollow nanosphere | Suitable for sustainable energy applications. | [90] |
| Pt NWs | Nanowires | Active catalysts toward ORR. | [91] | |
| Cu2S | Tree-like nanostructure | Suggested potential for 1D functional nanosystems. | [92] | |
| AlN | Hollow nanosphere | Suggested applications as potential high-temperature structural materials. | [93] |