The tin sulfides SnS, Sn 2 S 3, and Sn S 2 are investigated for a wide variety of applications
such as photovoltaics, thermoelectrics, two-dimensional electronic devices, Li ion battery …

Lead‐free tin sulfide (SnS), with an analogous structure to SnSe, has attracted increasing
attention because of its theoretically predicted high thermoelectric performance. In practice …

The interest in improving the thermoelectric response of bulk materials has received a boost
after it has been recognized that layered materials, in particular SnSe, show a very large …

The simple binary SnSe has been recently proposed as a prospective candidate for
thermoelectric applications due to its exceptionally low lattice thermal conductivity. However …

The rise of high-throughput calculations has accelerated the discovery of promising classes
of thermoelectric materials. In prior work, we identified the n-type Zintl pnictides as one such …

SnS is one of the most promising layered chalcogenide materials for thermoelectric
applications. Novel SnS/Graphite composites were prepared by the one-pot hydrothermal …

We explore a material design strategy to optimize the thermoelectric power factor. The
approach is based on screening the band structure changes upon a controlled volume …

Revealing the intrinsic defects and further understanding the corresponding origin are of
crucial importance in optimizing and designing novel thermoelectric materials. In this work …

Tin sulfide nanoparticles have a great potential for use in a broad range of applications
related to solar energy conversion (photovoltaics, photocatalysis), electrochemical energy …

SnS is a semiconductor of interest for next-generation thin-film photovoltaic devices. The
ground-state phase is layered with an orthorhombic (Pnma) crystal structure. Anisotropy in …