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• W2603147688 endingPage "114" @default.
• W2603147688 startingPage "101" @default.
• W2603147688 abstract "We report a layer thickness-tunable direct synthesis growth method for bi- to few-layer crystalline molybdenum disulfide (MoS2) thin layers. For the first time, a facile, cost effective, and mass-scalable direct synthesis approach, based on a chemical bath deposition, is designed for quantum dot(QD)-based MoS2 layers using (NH4)6Mo7O24 and thiourea (CH4N2S) as precursors. Using this process, the uniformity of large area thin layer can be retained, and the applicability to various substrates can provide great opportunities in the fabrication of various atomically thin layered structures. The structural and optical properties of the MoS2 QD layers are systematically investigated. Raman, AFM and TEM analyses confirm the formation of continuous and crystalline bi-, tri- and few-layered MoS2. Their electrical properties are evaluated by bottom-gate FETs, and a field-effect mobility value of ~1.06 cm2 V−1 s−1 and a current on/off ratio in the order of ~ 105 are obtained. Particularly, MoS2 prepared as a thin film consisting QD structures of grains shows novel electrocatalytic property. MoS2 QDs on Au/Si are proven to be excellent electrocatalysts for hydrogen evolution reaction, featured by Tafel slope (94 mV decade−1), exchange current density (1.91×10-1 mA cm−2) and long-term durability for 20 h. Our approach opens new avenues for the design and synthesis of functional MoS2 layers for energy harvesting." @default.
• W2603147688 created "2017-04-07" @default.
• W2603147688 creator A5006271938 @default.
• W2603147688 creator A5016363842 @default.
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• W2603147688 creator A5006540390 @default.
• W2603147688 date "2017-05-01" @default.
• W2603147688 modified "2023-10-16" @default.
• W2603147688 title "Direct synthesis of thickness-tunable MoS2 quantum dot thin layers: Optical, structural and electrical properties and their application to hydrogen evolution" @default.
• W2603147688 cites W1504488914 @default.
• W2603147688 cites W1945542590 @default.
• W2603147688 cites W1966907445 @default.
• W2603147688 cites W1970565936 @default.
• W2603147688 cites W1971113415 @default.
• W2603147688 cites W1971875218 @default.
• W2603147688 cites W1974115717 @default.
• W2603147688 cites W1975192769 @default.
• W2603147688 cites W1977307971 @default.
• W2603147688 cites W1979302125 @default.
• W2603147688 cites W1983739557 @default.
• W2603147688 cites W1985580887 @default.
• W2603147688 cites W1986387450 @default.
• W2603147688 cites W1996162207 @default.
• W2603147688 cites W1996607547 @default.
• W2603147688 cites W1996672400 @default.
• W2603147688 cites W1999115710 @default.
• W2603147688 cites W1999345742 @default.
• W2603147688 cites W2000500676 @default.
• W2603147688 cites W2000990213 @default.
• W2603147688 cites W2001487342 @default.
• W2603147688 cites W2007195468 @default.
• W2603147688 cites W2008552541 @default.
• W2603147688 cites W2009053027 @default.
• W2603147688 cites W2012712921 @default.
• W2603147688 cites W2013754513 @default.
• W2603147688 cites W2014935324 @default.
• W2603147688 cites W2019638401 @default.
• W2603147688 cites W2021994802 @default.
• W2603147688 cites W2022997694 @default.
• W2603147688 cites W2024496012 @default.
• W2603147688 cites W2026982466 @default.
• W2603147688 cites W2029221262 @default.
• W2603147688 cites W2029252287 @default.
• W2603147688 cites W2030873181 @default.
• W2603147688 cites W2034050716 @default.
• W2603147688 cites W2037811931 @default.
• W2603147688 cites W2043775186 @default.
• W2603147688 cites W2045269671 @default.
• W2603147688 cites W2047443163 @default.
• W2603147688 cites W2048610167 @default.
• W2603147688 cites W2053197814 @default.
• W2603147688 cites W2066305393 @default.
• W2603147688 cites W2066867185 @default.
• W2603147688 cites W2073466435 @default.
• W2603147688 cites W2074139877 @default.
• W2603147688 cites W2077502258 @default.
• W2603147688 cites W2078204579 @default.
• W2603147688 cites W2078359263 @default.
• W2603147688 cites W2078397056 @default.
• W2603147688 cites W2089592248 @default.
• W2603147688 cites W2092044679 @default.
• W2603147688 cites W2092442698 @default.
• W2603147688 cites W2094285067 @default.
• W2603147688 cites W2096421416 @default.
• W2603147688 cites W2107550336 @default.
• W2603147688 cites W2117262972 @default.
• W2603147688 cites W2125284466 @default.
• W2603147688 cites W2133795748 @default.
• W2603147688 cites W2134339864 @default.
• W2603147688 cites W2145218680 @default.
• W2603147688 cites W2146735803 @default.
• W2603147688 cites W2150191024 @default.
• W2603147688 cites W2150613061 @default.
• W2603147688 cites W2152546870 @default.
• W2603147688 cites W2157876253 @default.
• W2603147688 cites W2157905510 @default.
• W2603147688 cites W2163433444 @default.
• W2603147688 cites W2190268668 @default.
• W2603147688 cites W2206573388 @default.
• W2603147688 cites W2222731541 @default.
• W2603147688 cites W2304360524 @default.
• W2603147688 cites W2312616256 @default.
• W2603147688 cites W2314915452 @default.
• W2603147688 cites W2331708333 @default.
• W2603147688 cites W2333365892 @default.
• W2603147688 cites W2343358570 @default.
• W2603147688 cites W2464714588 @default.
• W2603147688 cites W3099277824 @default.
• W2603147688 cites W3101032984 @default.
• W2603147688 cites W3101929953 @default.
• W2603147688 cites W3146951717 @default.
• W2603147688 cites W4252599051 @default.
• W2603147688 cites W4384834212 @default.
• W2603147688 doi "https://doi.org/10.1016/j.nanoen.2017.03.031" @default.

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