In the past few decades, the fabrication of solar cells has been considered as one of the
most promising ways to meet the increasing energy demands to support the development of …

Photovoltaic technologies offer a sustainable solution to the challenge of meeting increasing
energy demands. Chalcopyrite Cu (In, Ga)(S, Se) 2, short CIGS—thin‐film solar cells …

Although Cu (In, Ga)(S, Se) 2 (CIGSe) based thin film solar cells have reached efficiencies
exceeding 22% based on vacuum processed CIGSSe absorbers, the supply of indium and …

Copper indium gallium diselenide-based technology provides the most efficient solar energy
conversion among all thin-film photovoltaic devices. This is possible due to engineered …

The addition of cesium into Cu (In, Ga)(S, Se) 2‐short CIGSSe‐absorber layers (fabricated
via vacuum deposition methods), has most recently culminated in devices with record power …

Solution‐based thin‐film semiconductors offer a promising path for the mass production of
low‐cost solar cells prepared at low temperatures. Thin‐film Cu‐based chalcogenides such …

Poor crystallinity, high degree of porosity and rough surfaces are the main drawbacks of
solution‐processed CIGS absorbers resulting in lower power conversion efficiencies when …

With the deepening climate emergency and the growing imperative to move beyond fossil
fuels, Cu (In, Ga)(S, Se) 2—commonly referred to as CIGS—thin-film solar cells are gaining …

High-performance chalcopyrite solar cells have been fabricated on transparent conductive
oxide (TCO) back contact through an environmentally benign solution, showing great …

A breakthrough in the N, N-dimethylformamide (DMF) molecular ink route for fabricating
highly efficient, low bandgap CuIn (S, Se) 2 (CISSe) solar cells is presented, demonstrating …