Table 1.
SN | MXene | Polymer | Result | Application | Ref. |
---|---|---|---|---|---|
1. | Ti3C2Tx | PVB | RLmax value of −46.3 dB at 5.8 GHz | EMIS | [224] |
2. | Ti3C2Tx | UHMWPE | Addition of Ti3C2 increases antifriction properties, mechanical strengths, and crystalline property | Improving mechanical properties | [225] |
3. | Ti3C2Tx | PES | Gentian Dye with flux 117.6 9 Lm−2h−1 rejects 80.3% and that with 114.9 Lm−2h−1 rejects 10.7% at pressure of 0.1 MPa. | Ultrafiltration membranes for purification | [83] |
4. | Ti3C2Tx | Chitosan | Recover 94–105% for malathion recovery in tap water. | Biosensor | [226] |
5. | Ti3C2Tx | Cellulose Nano fibers | EMIS ~25.8 dB at 12.4 GHz with 80% of d-Ti3C2Tx and ρ ~739.4 S m−1. | EMIS | [93] |
6. | Ti3C2Tx | PS | Improved electrochemical performance. | Immobilization of soluble PS |
[95] |
7. | Ti3C2Tx | PS | Capacity reduced 0.05%/cycle, the SC of 1200 mAhg−1 over 5 h. C/DC current rate and a CRR of 80% attained over 400 cycles at 2 h. C/DC current rate. | Supercapacitor | [96] |
8. | Ti3C2Tx | PVDF | The antibacterial rate of the fresh membrane reached 67% and 73% compared to that of PVDF, while aged membranes exhibited over 99% growth inhibition. | Anti-fouling ultrafiltration membrane |
[31] |
9. | Ti3C2Tx | PVDF/PDMS | Highly efficient light-to-heat conversion rates at nearly 100%. | Photothermal conversion |
[98] |
10. | Ti3C2Tx | P(VDF-TFE-CFE) | ~15 wt.% MXene raised dielectric permittivity to 105 and 10 wt.%. MXene raised the dielectric constant 25 times. | Enhanced electric properties | [99] |
11. | Ti3C2Tx | Polypyrrole | Attained maximum SC of 184.36 Fg−1 at 2 mVs−1 with CRR of 83.33% after 4000 charging cycles at 1 Ag−1 | Supercapacitors | [102] |
12. | Ti3C2Tx | PVA/PAA | Composite nanofibers displayed excellent catalytic activity against 4-NP. | Wastewater treatment |
[104] |
13. | V2C | PDMAEMA | Increasing temperature from 25 °C to 45 °C increases the transmittance from 15% to 75%, and further addition of CO2 increases conductivity from 2.8 to 33.7 mS cm−1. | Responsive polymers |
[107] |
14. | Ti3C2Tx | Polyurethane | 0.5 wt.% of MXene addition increases the stress by ~70%, tensile strength by ~20%, Pus hardness by ~10%, breaking elongation reduction by ~17%, and water absorption reduction by 10%. | Mechanical properties improvement |
[111] |
15. | Ti3C2Tx | Polyaniline | 1:3 mass ratio shows microwave absorption of −56.3 dB at 13.80 GHz with an efficiency of 99.9999%. | Microwave absorption |
[114] |
16. | Ti3C2Tx | P (3,4 EDOT: PSS) | The addition of 1M H2SO4 gives an excellent result of 1065 F cm−3 volumetric capacitance at 2 mV s−1. | Increase in volumetric capacitance for ASC. | [115] |
17. | Ti3C2Tx | Low density polyethylene |
Better thermal stability of composites after the incorporation of MXene. | Study of thermal stability |
[118] |
18. | Ti3C2Tx | P-3,4 EDOT | The C/DCC in the first cycle is 575 and 307 mA h g−1. After 100 cycles of charging and discharging, the capacitance was maintained at 83% with respect to its first cycle | Upgrade in Li-ion battery technology | [119] |
19. | Ti3C2Tx | Polyester | Made yarn with SC of 18.39 m F cm−2 at 5 mV s−1, a power density of 0.39 mW cm−2, and a power density of 0.38 μW h cm−2. The retention performance was 98.2% over 6000 cycles. | Gave yarn for wearable electronics devices. | [122] |
20. | Ti3C2Tx | P(3,4-EDOT): PSS | 70 wt.% MXene made the fiber with 1489 S cm−1 conductivity, 7.13 Wh cm-3 energy density, and 8249 mW cm−3 power density. | Conductive fibers |
[116] |
21. | Ti3C2Tx | Polyacrylamide | The conductivity is increased to 3.3 × 10−2 S m−1 after the addition of 6 wt.% MXene onto the membrane. | Improved flexibility and conductivity |
[126] |
22. | Ti3C2Tx | PEA/P(DMS) | PDMS and PEI membranes are good for non-polar and polar solvent systems. Large-sized PEG addition will enhance their rejection ability. | Solvent resistant nanofiltration in alcohol-based mixtures |
[123] |
23. | Ti3C2Tx | GdW10-based Polyoxometalates | Eradicated tumor cell with Ti3C2 NSs as a contrast agent for contrast-enhanced CT and MR imaging. | CT/MRI-guided precise PTT of tumors |
[24] |