physically based analytical model of the drain current of an organic thin-film transistor is proposed. It is compared with the measurements collected from transistorsmade with different gate insulators, organic semiconductors, and fabrication processes. The extracted model parameters provide quantitative information on the charge transport in the active layer of the transistor. The analysis suggests that the tail states are an intrinsic property of the organic semiconductor, whereas the deep states arise from the interaction between the semiconductor and the gate insulator. The relative importance of tail and deep localized states is related to the operating regions of the transistor. The resulting mathematical expressions are simple and su...
A unified drain current model of complementary (p- and n-type) organic thin film transistors (OTFTs)...
\u3cp\u3eA unified drain current model of complementary (p- and n-type) organic thin film transistor...
A unified drain current model of complementary (p- and n-type) organic thin film transistors (OTFTs)...
physically based analytical model of the drain current of an organic thin-film transistor is propose...
physically based analytical model of the drain current of an organic thin-film transistor is propose...
physically based analytical model of the drain current of an organic thin-film transistor is propose...
physically based analytical model of the drain current of an organic thin-film transistor is propose...
physically based analytical model of the drain current of an organic thin-film transistor is propose...
A physically based analytical model of the drain current of an organic thin-film transistor is propo...
A physically based analytical model of the drain current of an organic thin-film transistor is propo...
Two analytical drain current models for organic thin-film transistors(OTFTs)are presented.The first ...
Motivation: Electronics based on organic thin-film transistors (OTFTs) enables a variety of attracti...
Motivation: Electronics based on organic thin-film transistors (OTFTs) enables a variety of attracti...
Surface-potential-based drain current model is presented for organic thin-film transistors consideri...
A unified drain current model of complementary (p- and n-type) organic thin film transistors (OTFTs)...
A unified drain current model of complementary (p- and n-type) organic thin film transistors (OTFTs)...
\u3cp\u3eA unified drain current model of complementary (p- and n-type) organic thin film transistor...
A unified drain current model of complementary (p- and n-type) organic thin film transistors (OTFTs)...
physically based analytical model of the drain current of an organic thin-film transistor is propose...
physically based analytical model of the drain current of an organic thin-film transistor is propose...
physically based analytical model of the drain current of an organic thin-film transistor is propose...
physically based analytical model of the drain current of an organic thin-film transistor is propose...
physically based analytical model of the drain current of an organic thin-film transistor is propose...
A physically based analytical model of the drain current of an organic thin-film transistor is propo...
A physically based analytical model of the drain current of an organic thin-film transistor is propo...
Two analytical drain current models for organic thin-film transistors(OTFTs)are presented.The first ...
Motivation: Electronics based on organic thin-film transistors (OTFTs) enables a variety of attracti...
Motivation: Electronics based on organic thin-film transistors (OTFTs) enables a variety of attracti...
Surface-potential-based drain current model is presented for organic thin-film transistors consideri...
A unified drain current model of complementary (p- and n-type) organic thin film transistors (OTFTs)...
A unified drain current model of complementary (p- and n-type) organic thin film transistors (OTFTs)...
\u3cp\u3eA unified drain current model of complementary (p- and n-type) organic thin film transistor...
A unified drain current model of complementary (p- and n-type) organic thin film transistors (OTFTs)...