在許多感測器的研究文獻中，發現藉由改變材料制程，可以提升元件對於氣體感

在許多感測器的研究文獻中，發現藉由改變材料制程，可以提升元件對於氣體感測性能的方法，已被廣泛地研究。在此實驗，我使用金屬氧化物- SnO2，以靜電紡絲技術製成奈米纖維，透過高溫退火時，控制氧氣濃度環境，進而影響氧空缺數量的多寡。藉由電性量測儀器量測I-V及I-t，研究不同氧空缺含量對元件的感測能力的差異，證明氧空缺對感測能力的重要性。

結果 (英文) 1:

In the literature a number of sensors, the process was found by changing the material, the method can improve the gas sensing element performance, has been extensively studied. In this experiment, a metal I oxide - SnO2, in electrospinning nanofiber made, through a high temperature annealing, controlling the oxygen concentration in the atmosphere, thereby affecting the amount of oxygen vacancy number. With electrical measuring instruments measuring IV and It, study differences oxygen vacancy content on sensing capability element, demonstrate the importance of oxygen vacancies for sensing capabilities.

結果 (英文) 2:

In many sensor research literatures, it has been found that the method sensing performance of components can be improved by changing the process of materials has been extensively studied. In this experiment, I used metal oxide-SnO2, which is made of nanofiber spun with electrostatic spinning technology, which controls the oxygen concentration environment through high temperature annealing, which in turn affects the amount of oxygen. By measuring I-V and I-t by the electrical measuring instrument, the difference of the sensing ability of different oxygen vacancy content to the component was studied, and the importance of oxygen vacancy to sensing ability was proved.

結果 (英文) 3:

In many sensor research literature, it has been widely studied that the method of improving the gas sensing performance of components by changing the material process. In this experiment, I use metal oxide- SnO2 is a kind of nanofiber made by electrospinning technology. When it is annealed at high temperature, the environment of oxygen concentration is controlled, and then the number of oxygen vacancies is affected. By measuring I-V and I-T with electrical measuring instrument, the difference of sensing ability of different oxygen vacancies on components is studied, and the importance of oxygen vacancies on sensing ability is proved.