Sensitizing inorganic semiconductors using singlet fission (SF) materials, which produce two
excitons from one absorbed photon, can potentially boost their light-to-electricity conversion …

Singlet fission (SF), which can convert one singlet exciton into two triplet excitons, has the
potential to enhance the solar energy conversion efficiency in devices such as photovoltaic …

Molecular dimers, oligomers, and polymers are versatile components in photophysical and
optoelectronic architectures that could impact a variety of applications. We present a …

Singlet fission (SF) is a spin‐allowed process in which a singlet state splits into two triplet
states. Materials that enable SF have attracted great attention in the last decade, mainly …

Exciton multiplication through singlet fission (SF) has the potential to surpass the detailed-
balance efficiency limit of single-junction photovoltaic (PV) devices. However, energy loss …

Hybrid heterostructures (HSs) comprising organic and two-dimensional (2D) monolayer
semiconductors hold great promise for optoelectronic applications. So far, research efforts …

To harvest two triplet excitons of singlet fission (SF) via a two-electron transfer efficiently, the
revelation of the key factors that influence the two-electron-transfer process is necessary …

Triplet dynamics in singlet fission depend strongly on the strength of the electronic coupling.
Covalent systems in solution offer precise control over such couplings. Nonetheless, efficient …

Singlet fission has emerged as a promising way to overcome the Shockley–Queisser limit in
solar energy conversion devices, and a few studies have claimed proof-of-principle results …

Singlet fission is a process by which an organic semiconductor is able to generate two triplet
excitons from a single photon. If charges from the triplets can be successfully harvested …