Home-Tag: Perovskite
16 03, 2021

TUNING THE EXCITONIC PROPERTIES OF A TWO-DIMENSIONAL PEROVSKITE FAMILY VIA QUANTUM CONFINEMENT

By |2021-05-19T12:40:39+00:00March 16th, 2021|SCI Highlights|0 Comments

Mateusz Dyksik, Wrocław University of Science and Technology and Paulina Plochocka, LNCMI Toulouse. Two-dimensional (2D) metal-halide perovskites constitute an important step in the evolution of low-cost organic-inorganic hybrid light absorbers and emitters. Similar to their 3D counterparts, layered perovskites show promising performance in photovoltaic and light emitting devices while preserving [...]

3 03, 2021

BROAD TUNABILITY OF CARRIER EFFECTIVE MASSES IN TWO-DIMENSIONAL HALIDE PEROVSKITES

By |2021-05-19T12:41:23+00:00March 3rd, 2021|SCI Highlights|0 Comments

Mateusz Dyksik, Wroclaw University and Paulina Plochocka, LNCMI-Toulouse. Two-dimensional organic-inorganic halide perovskites have generated tremendous interest in the field of optoelectronics for applications in low-cost and efficient light absorbers and emitters. Similar to their three-dimensional (3D) ancestors, the layered perovskite derivatives exhibit promising performance in photovoltaic and lightemitting devices, [...]

13 02, 2020

PHASE-TRANSITION-INDUCED CARRIERMASS ENHANCEMENT IN 2D RUDDLESDEN− POPPER PEROVSKITES

By |2021-05-19T12:42:00+00:00February 13th, 2020|SCI Highlights|0 Comments

Michal Baranowski and Paulina Plochocka, LNCMI-Toulouse Organic-inorganic halide perovskites have become the “next big thing” in emerging semiconductor materials, with their unprecedented rapid development and successful application in high-performance photovoltaics. Yet, their inherent instabilities with respect to moisture remain a crucial challenge for these materials. This directed the interest [...]

1 03, 2018

Broadband spectroscopy at extreme magnetic fields: First results

By |2021-05-19T12:42:57+00:00March 1st, 2018|TECH Highlights|0 Comments

Alessandro Surrente, Atsuhiko Miyata, Oliver Portugall, and Paulina Plochocka, LNCMI-Toulouse Magnetic fields exceeding 100 T can be obtained only by semi-destructive methods. In one approach, the magnetic field is generated by a single-turn coil, which explodes during the pulse leaving the cryostat where the sample is mounted intact. [...]

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