Polymer semiconductors composed of a carbon-based π conjugated backbone have been
studied for several decades as active layers of multifarious organic electronic devices. They …

During the past 30 years of research in organic electronics, the development of mechanistic
understanding of important structure–processing–performance interrelationships has been …

Conjugated polymers are a promising candidate for large-area stretchable electronics
because of their tunable electrical and mechanical properties, light weight, and low-cost …

For near-amorphous donor–acceptor (D–A) polymers, local aggregates can serve as charge
transport contacts between conjugated backbones, which are important for achieving high …

The mechanical properties of π-conjugated (semiconducting) polymers are a key
determinant of the stability and manufacturability of devices envisioned for applications in …

To simultaneously obtain outstanding stretchability, strength, and charge mobility of
conjugated polymers (CPs) has remained a challenge for the field of stretchable electronics …

Current understanding of molecular design principles for degradable imine-based polymer
semiconductors is limited to semicrystalline polymer morphologies. Herein, we design and …

The development of high‐performance n‐type polymer semiconductors is powered by the
design and synthesis of electron‐deficient building blocks with optimized physicochemical …

Stretchable electronics have received great attention in recent years because they are able
to accommodate large mechanical deformation without damage to their electronic …

Indacenodithiophene (IDT) copolymers are a class of conjugated polymers that have limited
long-range order and high hole mobilities, which makes them promising candidates for use …