激光诱导转移技术制备超精细导电图案研究进展
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袁康, 曹文鑫, 孙春强, 王卓超, 王笑笑, 张宇民, 朱嘉琦
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Research Progress on the Preparation of Ultrafine Conductive Patterns Using Laser-Induced Transfer Technology
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YUAN Kang, CAO Wenxin, SUN Chunqiang, WANG Zhuochao, WANG Xiaoxiao, ZHANG Yumin, ZHU Jiaqi
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表2 常见LIT技术突破的核心机制总结[21~24]
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Table 2 Summary of the core mechanisms of technical breakthroughs in common LIT technology[21-24]
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| Technical variant | Energy transfer mechanism | Core problem addressed | Expansion of application field | Ref. |
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| MAPLE-DW | Matrix vaporization generates moderate vapor pressure | Phase-change damage of heat-sensitive materials | Organic semiconductors, bio-inks | [21] | | DR-LIFT | Plasma expansion of the metal absorption layer generates pressure waves | Direct photothermal damage of materials | Microfluidic chips, diagnostic sensors | [22] | | TP-DRL | Photodecomposition of polymers releases gases to generate shock waves | Thermal degradation of organic materials | OLED, QLED displays | [23] | | BA-LIFT | Polymer bubble expansion drives fluid flow | Splash control for high-resolution fluid transfer | Flexible circuits, transparent electrodes | [24] |
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