Organic semiconductors have attracted a lot of attention since the discovery of highly doped
conductive polymers, due to the potential application in field-effect transistors (OFETs), light …

Organic dyes and pigments constitute a large class of industrial products. The utilization of
these compounds in the field of organic electronics is reviewed with particular emphasis on …

Since the discovery of highly conducting polyacetylene by Shirakawa, MacDiarmid, and
Heeger1 in 1977, π-conjugated systems have attracted much attention as futuristic materials …

The advantages of organic field‐effect transistors, such as low cost, mechanical flexibility
and large‐area fabrication, make them potentially useful for electronic applications such as …

Organic electron‐transporting materials are essential for the fabrication of organic p‐n
junctions, photovoltaic cells, n‐channel field‐effect transistors, and complementary logic …

Organic semiconductors have been the subject of intensive academic and commercial
interest over the past two decades, and successful commercial devices incorporating them …

Printed electronics is a revolutionary technology aimed at unconventional electronic device
manufacture on plastic foils, and will probably rely on polymeric semiconductors for organic …

Over the past 20 years, organic transistors have developed from a laboratory curiosity to a
commercially viable technology. This critical review provides a short summary of several …

As exemplified by this special issue of Chemical ReViews, organic electronics has emerged
as a vibrant field of research and development, spanning chemistry, physics, materials …

We begin with a general description of the chemical, physical, and electrical properties of
organic semiconductors, OSCs, a class of materials that includes molecular semiconductors …