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Eutectic Molten Salt-Enabled Large-Scale Ti3AlC2 MAX Phase Synthesis for High-Performance Ti3C2TX MXene Transparent
Jeong Seob Yun1, Sang Hyuk Im1
1BK21 Four R&E Center, Department of Chemical and Biological Engineering, Korea University, 145, Anam-ro, Seongbuk-gu, Seoul 02841, Republic of Korea.
None:
Despite previous research, acquiring large-scale Ti3AlC2 MAX particles using the molten salt method is still a challenge. In this study, large-scale Ti3AlC2 MAX particles of 10-37 μm were synthesized for the first time using eutectic molten salt at 1300 °C, 4 h sintering. The increased crystal size of Ti3AlC2 MAX achieved using eutectic molten salt led to the production of 3-12 μm Ti3C2TX MXene. The transparent heater and textile-based breath sensor fabricated from the as-prepared Ti3C2TX MXene show good performance due to the large size of MXene. The best heating efficiency of 148.2 °C cm2 W-1 was achieved in Ti3C2TX MXene thin film of Rs = 212.16 Ω sq-1 and T = 73.76% at 550 nm. The textile-based breath sensor shows a fast response to humidity and good linear correlation (r2 = 0.9972) between relative humidity and current and exhibits a low device resistance of 3.153 KΩ at 40% RH. A maximum resistance response of 262.4% was achieved at 93% RH using 5% RH as the initial condition. This work successfully demonstrates for the first time the practicality of Eut-Ti3AlC2 as a potential alternative to commercial Ti3AlC2 MAX for the application to transparent heaters and breath sensors that require large size MXene.
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