The electrical instability of organic field-effect transistors is investigated. We observe that the threshold-voltage shift (see figure) shows a stretched-exponential time dependence under an applied gate bias. The activation energy of 0.6 eV is common for our and all other organic transistors reported so far. The constant activation energy supports charge trapping by residual water as the common origin.</p
Here we study the origin of the gate bias-stress effect in organic p-type transistors. Based on wate...
Here we study the origin of the gate bias-stress effect in organic p-type transistors. Based on wate...
Here we study the origin of the gate bias-stress effect in organic p-type transistors. Based on wate...
The electrical instability of organic field-effect transistors is investigated. We observe that the ...
The electrical instability of organic field-effect transistors is investigated. We observe that the ...
The electrical instability of organic field-effect transistors is investigated. We observe that the ...
The electrical instability of organic field-effect transistors is investigated. We observe that the ...
The electrical instability of organic field-effect transistors is investigated. We observe that the ...
The electrical instability of organic field-effect transistors is investigated. We observe that the ...
During prolonged application of a gate bias, organic field-effect transistors show a gradual shift o...
During prolonged application of a gate bias, organic field-effect transistors show a gradual shift o...
During prolonged application of a gate bias, organic field-effect transistors show a gradual shift o...
During prolonged application of a gate bias, organic field-effect transistors show a gradual shift o...
An investigation into the stability of metal-insulator-semiconductor (MIS) transistors based on alph...
Here we study the origin of the gate bias-stress effect in organic p-type transistors. Based on wate...
Here we study the origin of the gate bias-stress effect in organic p-type transistors. Based on wate...
Here we study the origin of the gate bias-stress effect in organic p-type transistors. Based on wate...
Here we study the origin of the gate bias-stress effect in organic p-type transistors. Based on wate...
The electrical instability of organic field-effect transistors is investigated. We observe that the ...
The electrical instability of organic field-effect transistors is investigated. We observe that the ...
The electrical instability of organic field-effect transistors is investigated. We observe that the ...
The electrical instability of organic field-effect transistors is investigated. We observe that the ...
The electrical instability of organic field-effect transistors is investigated. We observe that the ...
The electrical instability of organic field-effect transistors is investigated. We observe that the ...
During prolonged application of a gate bias, organic field-effect transistors show a gradual shift o...
During prolonged application of a gate bias, organic field-effect transistors show a gradual shift o...
During prolonged application of a gate bias, organic field-effect transistors show a gradual shift o...
During prolonged application of a gate bias, organic field-effect transistors show a gradual shift o...
An investigation into the stability of metal-insulator-semiconductor (MIS) transistors based on alph...
Here we study the origin of the gate bias-stress effect in organic p-type transistors. Based on wate...
Here we study the origin of the gate bias-stress effect in organic p-type transistors. Based on wate...
Here we study the origin of the gate bias-stress effect in organic p-type transistors. Based on wate...
Here we study the origin of the gate bias-stress effect in organic p-type transistors. Based on wate...