Henning Sirringhaus

L-4: Late-New Paper: Active-Matrix Operation of Electrophoretic Devices with Inkjet-Printed Polymer Thin Film Transistors

Active-matrix operation of an electrophoretic device has been achieved with all-polymer thin film transistors (TFTs). The source/drain, gate electrodes and gate lines of the TFTs were fabricated by inkjet printing with a conductive polymer, polyethylenedioxythiophene (PEDOT). Electrophoretic material was prepared from TiO2 particles suspended in dyed solution, and was microencapsulated in polymer membrane spheres. The microcapsules were sandwiched between the polymer active-matrix array and a counter electrode. The voltage of each pixel was independently changed by switching the printed polymer TFT, and contrast in the electrophoretic material was successfully obtained.

Research data supporting the paper "On the manifestation of electron-electron interactions in the thermoelectric response of semicrystalline conjugated polymers with low energetic disorder"

Here, we present the data underlying the paper On the manifestation of electron-electron interactions in the thermoelectric response of semicrystalline conjugated polymers with low energetic disorder accepted at Communications Physics on 26 March 2018. For contributions of the authors to the data and experimental details, please refer to the original paper.

Performance Improvements in Conjugated Polymer

Data on the stability of conjugated polymer OFETs. The data set contains all the data presented in the paper (Figures 1 through 4) and consists of transistor transfer and output characteristics as well as the extracted field-effect mobility for some devices (For others it can directly be extraxted from the containing raw data) and photothermal absorption spectroscopy (PDS) data.