Stretchable [2]rotaxane-bridged MXene films applicable for electroluminescent devices.

IF 12.5 1区 综合性期刊 Q1 MULTIDISCIPLINARY SCIENCES Science Advances Pub Date : 2025-03-07 DOI:10.1126/sciadv.adt8262
Chunyu Wang, Boyue Gao, Kai Xue, Wenbin Wang, Jun Zhao, Ruixue Bai, Tinghao Yun, Zhiwei Fan, Mengling Yang, Zhaoming Zhang, Zhitao Zhang, Xuzhou Yan
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Abstract

Titanium carbide (Ti3C2TX) MXene has prominent mechanical properties and electrical conductivity. However, fabricating high-performance macroscopic films is challenging, as weak interlayer interactions limit their mechanical performance. Here, we introduce [2]rotaxane, a mechanically interlocked molecule, to enhance MXene films. Compared to pure MXene (fracture strain: 4.6%, toughness: 0.6 MJ/m3), [2]rotaxane-bridged MXene (RBM) films achieve record-high strain (20.0%) and toughness (11.9 MJ/m3) with only 3.6% [2]rotaxane by weight. Additionally, RBM films endure 500 stretch cycles (0 to 15% strain) with stable and reversible resistance alterations, making them ideal for stretchable electrodes. Notably, RBM films enable stretchable electroluminescent devices with reliable operation under 20% elongation and customizable luminescent patterns. This innovative use of mechanically interlocked molecules to cross-link MXene platelets advances MXene films and other two-dimensional materials in stretchable electronics.

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适用于电致发光器件的可拉伸[2]轮烷桥接MXene薄膜。
碳化钛(Ti3C2TX) MXene具有优异的力学性能和导电性。然而,制造高性能宏观薄膜是具有挑战性的,因为层间的弱相互作用限制了它们的机械性能。在这里,我们引入[2]轮烷,一种机械互锁分子,以增强MXene薄膜。与纯MXene(断裂应变:4.6%,韧性:0.6 MJ/m3)相比,[2]轮烷桥接MXene (RBM)薄膜在仅含3.6%[2]轮烷的情况下,获得了创纪录的高应变(20.0%)和韧性(11.9 MJ/m3)。此外,RBM薄膜可承受500次拉伸循环(0至15%的应变),具有稳定和可逆的电阻变化,使其成为可拉伸电极的理想选择。值得注意的是,RBM薄膜使可拉伸的电致发光器件在20%伸长率和可定制的发光模式下具有可靠的运行。这种创新性地使用机械互锁分子来交联MXene血小板,推动了MXene薄膜和其他二维材料在可拉伸电子领域的发展。
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来源期刊
Science Advances
Science Advances 综合性期刊-综合性期刊
CiteScore
21.40
自引率
1.50%
发文量
1937
审稿时长
29 weeks
期刊介绍: Science Advances, an open-access journal by AAAS, publishes impactful research in diverse scientific areas. It aims for fair, fast, and expert peer review, providing freely accessible research to readers. Led by distinguished scientists, the journal supports AAAS's mission by extending Science magazine's capacity to identify and promote significant advances. Evolving digital publishing technologies play a crucial role in advancing AAAS's global mission for science communication and benefitting humankind.
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