A novel method for mapping the charge density spatial distribution in organic field-effect transistors based on the electromodulation of the photoluminescence is demonstrated. In field-effect transistors exciton quenching is dominated by exciton–charge carrier interaction so that it can be used to map the charge distribution in different operating conditions. From a quantitative analysis of the photoluminescence quenching, the thickness of the charge carrier accumulation layer is derived. The injection of minority charge carriers in unipolar conditions is unexpectedly evidenced, which is not displayed by the electrical characteristics
Confocal fluorescence microscopy provides a means to map charge carrier density within the semicondu...
Morphological inhomogeneities and structural defects in organic semiconductors crucially determine t...
Structure–property relationships are of fundamental importance to develop quantitative models descri...
A novel method for mapping the charge density spatial distribution in organic field-effect transisto...
A novel method for mapping the charge density spatial distribution in organic field-effect transisto...
The morphology of the thin active layer is one of the main parameters that influence charge transpor...
The morphology of the thin active layer is one of the main parameters that influence charge transpor...
The morphology of the thin active layer is one of the main parameters that influence charge transpor...
The morphology of the thin active layer is one of the main parameters that influence charge transpor...
In organic field-effect transistors (OFETs), the morphological structure of the active layer is one ...
In organic field-effect transistors (OFETs), the morphological structure of the active layer is one ...
In organic field-effect transistors (OFETs), the morphological structure of the active layer is one ...
Although it is theoretically expected that all organic semiconductors support ambipolar charge trans...
The scanning photocurrent microscopy (SPCM) method is applied to pentacene field-effect transistors ...
Confocal fluorescence microscopy provides a means to map charge carrier density within the semicondu...
Confocal fluorescence microscopy provides a means to map charge carrier density within the semicondu...
Morphological inhomogeneities and structural defects in organic semiconductors crucially determine t...
Structure–property relationships are of fundamental importance to develop quantitative models descri...
A novel method for mapping the charge density spatial distribution in organic field-effect transisto...
A novel method for mapping the charge density spatial distribution in organic field-effect transisto...
The morphology of the thin active layer is one of the main parameters that influence charge transpor...
The morphology of the thin active layer is one of the main parameters that influence charge transpor...
The morphology of the thin active layer is one of the main parameters that influence charge transpor...
The morphology of the thin active layer is one of the main parameters that influence charge transpor...
In organic field-effect transistors (OFETs), the morphological structure of the active layer is one ...
In organic field-effect transistors (OFETs), the morphological structure of the active layer is one ...
In organic field-effect transistors (OFETs), the morphological structure of the active layer is one ...
Although it is theoretically expected that all organic semiconductors support ambipolar charge trans...
The scanning photocurrent microscopy (SPCM) method is applied to pentacene field-effect transistors ...
Confocal fluorescence microscopy provides a means to map charge carrier density within the semicondu...
Confocal fluorescence microscopy provides a means to map charge carrier density within the semicondu...
Morphological inhomogeneities and structural defects in organic semiconductors crucially determine t...
Structure–property relationships are of fundamental importance to develop quantitative models descri...