自供電電子設備基於其功能型聚合物/奈米複合材料界面與靈活性，被認為是實現先進醫療感測器網路和人機界面的潛力途徑，然而，這種概念在系統適應性和對複雜應用條件的適用性仍然具有挑戰性。本研究中提出一種低成本、製程簡單、高產率和可調變摩擦電性的矽膠/奈米粒子複合材料，並透過開爾文探針力顯微鏡 (KPFM) 和壓電力顯微鏡 (PFM) 探討所設計的奈米複合材料表面摩擦電性和壓電特性。我們將複合材料整合為混成奈米發電機裝置 (H-ETNG)，使其具有產生混合輸出之能力，並兼具出色的耐用性與穩定性。此外，我們進一步將 H-ETNG 結合智能人機介面平台。我們相信這些發現不僅對未來能源收集器提供了新方向，亦可於未來仿生與輔助科技上提供幫助。;Self-powered electronics based on functionally engineering polymer/nanocomposite interface have been regarded as a promising route to achieve advanced healthcare sensor network and human-machine interface. However, the lack of system adaptability and applicability to complex conditions remain challenging. Herein, an silicone/nanoparticle nanocomposite (ETNC) with low cost, simple process, high yield, and tunable triboelectricity is proposed. The triboelectric and piezoelectric properties of the as-derived nanocomposite are also investigated by Kelvin Probe Force Microscope (KPFM) and Piezoresponse Force Microscope (PFM), respectively. Moreover, the nanocomposite is integrated into a hybrid nanogenerator (H-ETNG) with excellent stability and durability. Furthermore, the H-ETNG is further combined with a human-machine interactive platform. We believe that these insights will not only shed light on advanced energy harvester design but also for future assistive technologies toward humanoid applications.
