This study reveals the temperature dependence of absorption spectra for methylammonium lead iodide with specific attention for its sub-bandgap
absorption edge (often referred to as Urbach energy). 
​KPV-LAB researchers have recently published in ACS Nano with a collaboration of Javey Research Group at the University of California, Berkeley. ​​
​This study reports the first-principles calculations based on density functional theory to investigate the surface defect and metal-induced gap state density of silicon in close contact with metals (Al and Ag).
​KPV-LAB welcomes Yifan Dang as a visiting student in silicon solar cells team.​
​Learn about the latest research results from KPV-LAB at the 2018 MRS Fall Meeting
​Charge accumulation at the electron and hole transport layers generates anomalous electrical behavior in perovskite solar cells (PSCs). Hysteresis in the current-voltage characteristic and recombination at the interfaces are the clearest manifestations of this phenomenon, which compromises device performance and stability. In this study, we explained the underlying charge‐carrier dynamics of a hysteresis observed and hysteresis-free PSCs by analyzing their transient photocurrent response. ​
​The Eni Award aims to reflect the importance of scientific research and innovation, promoting a better use of energy sources and encouraging a new generation of researchers. The award is an international point of reference for research in the energy and environment sectors.​​​​​​​
​​Furkan recently joined Prof. Stefaan de Wolf’s group as a postdoctoral fellow.
​KPV-LAB introduces new Visiting Students Research Program (VSRP) projects.
Jiang's current research interests include the development of high-efficiency perovskite/silicon tandem solar cells, perovskite solar cells based on novel materials including evaporation processing, interface passivation, and advanced characterization.​​
​KPV-LAB researchers developed a room temperature sputtered Nickel oxide (NiOx) hole transport thin films which can be used for perovskite solar cells, perovskite/silicon tandem solar cells, organic solar cells which employs low-temperature resilience substrates.​
The efficiency of solar cells can be increased by thin-film contacts developed by researchers at KAUST.​
​KPV-LAB members are joining PSCO-2018 Conference at Lausanne​
​Thanks to PMMA: PCBM Double-side passivation, very high‐efficiency (≈20.8%) perovskite cells with some of the highest open circuit voltages (1.22 V) reported for the same 1.6 eV bandgap are demonstrated.

KPV-LAB researchers fabricated the first silicon heterojunction solar cells at KAUST Solar Center with impressive start of >20%.​​
Thomas Allen​ reviewed passivating contacts which is enabling progress towards the efficiency limits of the silicon solar cells. ​
​High-efficiency silicon heterojunction (SHJ) solar cells (Fig. 1), which use a crystalline silicon (c-Si) wafer as an optical absorber and thin-film layers to form their electrical contacts, have the potential to gain a substantial share in the commercial photovoltaic (PV) market in the future. Currently, the world-record efficiency of 26.7 % is achieved with SHJ technology by placing both contacts in an interdigitated back-contact design. The KAUST Photovoltaics (KPV) Lab, led by Prof. Stefaan De Wolf, which is part of the KAUST Solar Center (KSC), is dedicated to the development of high-efficiency silicon-based solar cells, using SHJ solar cells as a core technology, and to tailoring such solar cells specifically for use in hot and sunny climates.
​Indeotec Octopus PECVD-PVD Cluster enables the fabrication of silicon heterojunction cells on the 6-inch wafers.​
Tantalum Nitride has been used for the first time as a passivating contact on silicon solar cells.​
KAUST Solar Center has a New Milestone​: KPV-LAB researchers have recently achieved >20% efficiency for perovskite solar cells 
Xinbo Yang's paper selected as a front cover in journal of "Progress in Photovoltaics: Research and Applications"  ​​