In this work different charge transport materials are p- and n-doped by different doping reactions, processed from solution. The doping and its efficiency is characterized by different methods. Additionally crosslinkable polymers are p-doped and compared with their corresponding non-crosslinkable polymeric and low-molecular counterpart
Charge carrier injection and transport in polymer light‐emitting diodes (PLEDs) is strongly limited ...
Molecular doping of organic semiconductors is a powerful tool for the optimization of organic electr...
For this thesis the system �poly(3,4-ethylenedioxythiophene) (PEDOT) utilized as electrochemically a...
Electrically doped buffer layers are often employed in organic optoelectronic devices to improve cha...
Since the discovery of conducting polymers in 1977 the field of organic electronics has evolved rapi...
iv ABSTRACT This research work aims at improving the device efficiency of solution processed OLED ...
Dotierung ist ein technologisches Schlüsselverfahren zur Kontrolle der Ladungsträgerdichte und der P...
The history of silicon technology showed that controlled doping was a key step for the realization o...
Here, controlled p-type doping of poly(2-methoxy-5-(2'-ethylhexyloxy)-p-phenylene vinylene) (MEH-PPV...
To improve charge carrier injection into or extraction from organic optoelectronic devices, electric...
Molecular doping is an important strategy to improve the charge transport properties of organic semi...
Organische Farbstoffe mit einem konjugierten pi-Elektronen System zeigen überwiegend ein halbleitend...
Doping the electron transport polymer poly [N,N amp; 8242; bis 2 octyldodecyl naphthalene 1,4,5,8 bi...
A pair of hole-conducting polymers comprising 3,6-linked carbazole and meta-linked anisole derivativ...
A method to determine the doping induced charge carrier profiles in lightly and moderately doped org...
Charge carrier injection and transport in polymer light‐emitting diodes (PLEDs) is strongly limited ...
Molecular doping of organic semiconductors is a powerful tool for the optimization of organic electr...
For this thesis the system �poly(3,4-ethylenedioxythiophene) (PEDOT) utilized as electrochemically a...
Electrically doped buffer layers are often employed in organic optoelectronic devices to improve cha...
Since the discovery of conducting polymers in 1977 the field of organic electronics has evolved rapi...
iv ABSTRACT This research work aims at improving the device efficiency of solution processed OLED ...
Dotierung ist ein technologisches Schlüsselverfahren zur Kontrolle der Ladungsträgerdichte und der P...
The history of silicon technology showed that controlled doping was a key step for the realization o...
Here, controlled p-type doping of poly(2-methoxy-5-(2'-ethylhexyloxy)-p-phenylene vinylene) (MEH-PPV...
To improve charge carrier injection into or extraction from organic optoelectronic devices, electric...
Molecular doping is an important strategy to improve the charge transport properties of organic semi...
Organische Farbstoffe mit einem konjugierten pi-Elektronen System zeigen überwiegend ein halbleitend...
Doping the electron transport polymer poly [N,N amp; 8242; bis 2 octyldodecyl naphthalene 1,4,5,8 bi...
A pair of hole-conducting polymers comprising 3,6-linked carbazole and meta-linked anisole derivativ...
A method to determine the doping induced charge carrier profiles in lightly and moderately doped org...
Charge carrier injection and transport in polymer light‐emitting diodes (PLEDs) is strongly limited ...
Molecular doping of organic semiconductors is a powerful tool for the optimization of organic electr...
For this thesis the system �poly(3,4-ethylenedioxythiophene) (PEDOT) utilized as electrochemically a...