Ti3C2
| Ti3AlC2
| 5 wt % HF (24 h RT)
| optimization of synthesis parameters
|
|
| | 10 wt % HF (24 h RT)
| | |
| | 30 wt % HF (4 h RT)
| | |
Ti2C
| Ti2AlC
| 13.5 M LiF in 6 M (15 h 40 °C)
| hybrid Li-ion battery (LIB)
|
|
Ti3C2
| Ti3AlC2
| 34.5 M LiF in 10 M HCl (24 h 35 °C)
| | |
Ti2C
| Ti2AlC
| 1.6 M FeF3in 6 M HCl (25 h 50 °C)
| performance of new etchants on MAX phases
|
|
Ti3C2
| Ti3AlC2
| 2.3 M FeF3in 6 M HCl (24 h 30 °C)
| | |
Ti2C
| Ti2AlC
| 21.5 M KF in 12 M HCl (24 h 30 °C)
| storage of natural gas
|
|
| | 21.5 M NaF in 12 M HCl (24 h30 °C)
| | |
| | 21.5 M NH4F in 12 M HCl (24 h 30 °C)
| | |
Ti3C2
| Ti3AlC2
| 31 M KF in 12 M HCl (24 h 30 °C)
| | |
| | 31 M NaF in 12 M HCl (24 h 30 °C)
| | |
| | 31 M NH4F in 12 M HCl (24 h RT)
| | |
Ti3C2
| Ti3AlC2
| 40 wt % HF (24 h RT)
| fabrication of Sn4+ion decorated nanocomposites for Lithium ion battery (LIB)
|
|
Ti3C2
| Ti3AlC2
| 50 wt % HF (2 h 50 °C)
| effect of HF solution on Ti3AlC2 powders
|
|
| | 50 wt % HF (10 h RT)
| | |
Ti3C2
| Ti3AlC2
| 50 wt % HF (22 h RT)
| interaction of layered MXene
|
|
Ti3C2
| Ti3AlC2
| 50 wt % HF (18 h RT)
| MXene for high volumetric capacitance
|
|
Ti3C2
| Ti3AlC2
| 5 M LiCl in 6 M HF (24 h 25 °C)
| effects of the presence of LiCl during the chemical etching
|
|
Ti3C2
| Ti3AlC2
| 1 M NH4HF2(12 h 60 °C)
| etching with bifluoride (NaHF2 KHF2 NH4HF2) in single-stage process
|
推荐阅读
