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    Solution synthesis of CuSbS2 nanocrystals: a new approach to control shape and size

    , Article Journal of Alloys and Compounds ; Volume 736 , 2018 , Pages 190-201 ; 09258388 (ISSN) Moosakhani, S ; Sabbagh Alvani, A. A ; Mohammadpour, R ; Ge, Y ; Hannula, S. P ; Sharif University of Technology
    Elsevier Ltd  2018
    Abstract
    Chalcostibite copper antimony sulfide (CuSbS2) micro- and nanoparticles with a different shape and size have been prepared by a new approach to hot injection route. In this method, sulfur in oleylamine (OLA) is employed as a sulfonating agent providing a simple route to control the shape and size of the particles, which enables the optimization of CuSbS2 for a variety of applications. The sulfur to metallic precursor ratio appears to be one of the most effective parameters along with the temperature and time for controlling the size and morphology of the particles. The growth mechanism study shows in addition to the CuSbS2 phase the presence of not previously observed intermediate phases... 

    Efficient and less-toxic indium-doped mapbi3 perovskite solar cells prepared by metal alloying technique

    , Article Solar RRL ; Volume 6, Issue 9 , 2022 ; 2367198X (ISSN) Tavakoli, M. M ; Fazel, Z ; Tavakoli, R ; Akin, S ; Satapathi, S ; Prochowicz, D ; Yadav, P ; Sharif University of Technology
    John Wiley and Sons Inc  2022
    Abstract
    Perovskite materials with ABX3 structure (A: organic, B: metal, and X: halides) have attracted tremendous attention due to their outstanding optoelectronic properties. Herein, a novel approach is developed using chemical vapor deposition (CVD), i.e., metal alloying of halide-perovskite domain via ion-transfer (MAHDI) for the growth of high-quality perovskite films, grown directly from a metal precursor. This technique easily enables us to replace the toxic Pb metal (B site) with other metals using alloying approach. Using the proposed approach, we fabricated stable and efficient Pb–In perovskite solar cells (PSCs) with a maximum power conversion efficiency (PCE) of 21.2%, which is more...