Abstract
Abstract
The basic performance parameters such as threshold voltage, drain current and saturation mobility play an important role for any transistor-based devices. The planar organic TFT provides a good performance but it is still not satisfactory. Therefore, in this paper, a vertical channel TFT (D5) is proposed that exhibits a significant improvement for threshold voltage V
t
, drain current I
Dmax
and saturation mobility μ
sat
in comparison to planar devices. The proposed vertical device (D5) is 44 and 24 times enhanced in comparison with planar device D1 in terms of I
Dmax
and μ
sat
, correspondingly. Furthermore, this paper compares five different vertical-channel device architectures (D2, D3, D4, D5, D6 & D7). Out of these structures, our proposed novel structure (D5) shows remarkable performance in terms of drain current (528 μA) and saturation mobility (80.8 cm2/V.s). As compared to the best mentioned vertical devices D2, D3 and D7, the proposed device exhibits 41.8 %, 15.6 % and 27.8 %, increment in drain current, respectively. Additionally, the proposed device exhibits about 2.7, 5.2 and 3.5 times improvement in comparison with D2, D3 and D7 correspondingly. The reasons for this better performance of the proposed device have been explained by vertical and horizontal cutline analysis.
Reference28 articles.
1. A depth analysis for different structures of organic thin film transistors: modeling of performance limiting issues;Mittal;Microelectron. Eng.,2016
2. Channel length variation effect on performance parameters of organic field effect transistors;Mittal;Microelectronics J.,2012
3. High-performance vertical organic transistors;Kleemann;Small,2013
4. Advancements for organic thin film transistors: structures, materials, performance parameters, influencing factors, models, fabrication, reliability and applications;Mittal;Mater. Sci. Semicond. Process.,2021
5. Effect of UV irradiation on the linear and nonlinear optical properties of erbium (III)-Tris (8-hydroxyquinolinato) thin films: optoelectronic performance;Qashou;Phys. Scr.,2022
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