以混合栅介电蛋白为可食元件的柔性有机晶体管

Gargi Konwar, Sachin Rahi, S. P. Tiwari
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引用次数: 0

摘要

利用新兴的可食用天然材料作为设备组件的柔性电子产品,为开发具有成本效益、可再生、可持续和环保的智能系统指明了道路。在这里,我们探索了一种可食用的天然生物聚合物蛋蛋白与薄的高k HfO2层形成混合栅极介电层,用于演示柔性有机晶体管。薄的高k介电层使器件能够在低电压下工作,而生物聚合物层有助于形成更好的介电半导体界面。所制备的器件在-5 V的低工作电压下表现出优异的p沟道特性。此外,这些器件在实际应用中表现出良好的电气和操作稳定性。这些发现表明,这种提出的栅极介质组合可以成为柔性有机器件的有趣和潜在组件。
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Flexible Organic Transistors with Hybrid Gate Dielectric Consisting Albumen as an Edible Component
Flexible electronics utilizing emerging edible natural materials as device components lead a path towards the development of cost-effective, renewable, sustainable, and eco-friendly smart systems. Here, an edible and natural biopolymer egg albumen was explored with a thin high-k HfO2 layer to form a hybrid gate dielectric layer for the demonstration of flexible organic transistors. The thin high-k dielectric layer enables the devices to be operated at low voltage while the biopolymer layer helps in forming a better dielectric semiconductor interface. The fabricated devices have shown excellent p-channel characteristics at a low operating voltage of -5 V. Moreover, these devices exhibited good electrical and operational stability to be used in practical applications. These findings suggest that this proposed gate dielectric combination can be an interesting and potential component for flexible organic devices.
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